Gatwick Airport (London) lies close to the town of Crawley, on the Victoria-Brighton main line. The station sits immediately to the East of what is now the South Terminal of the airport. This article was promoted by two aerial images of the site of the Airport and its railway station in the September 1997 issue of Steam World. [6]
Before the Airport there was Gatwick Racecourse, (c) Historic England, EPW028582, 1929. [1]Gatwick Railway Station and Racecourse in 1896 as shown on the 25″ Ordnance Survey. [7]Gatwick Railway Station and Racecourse as it appears on the 25″ Ordnance Survey of 1912, published in 1913. [8]
The present station, originally known as Gatwick, was built for the London, Brighton and South Coast Railway (LBSCR). It was closed in 1876 and reopened in 1891 by the LBSCR to serve the Gatwick Racecourse. At that time it was operating only on race days. [14]
Gatwick Racecourse Railway Station, circa. 1910, (c) Public Domain. [17]
The station, however, became obsolete due to the opening of nearby Tinsley Green/Gatwick Airport Station in September 1935. It was closed after the completion of the Beehive airport terminal, which was directly connected to the Gatwick station. [14]
Wikipedia marks significant events for Gatwick Airport and it Railway Station [13] from 1920 to 1945:
Late 1920s: Land adjacent to the racecourse (at Hunts Green Farm, along Tinsley Green Lane) was used as an aerodrome. The Hunts Green farmhouse on the land used for the aerodrome was converted into a clubhouse and terminal.
November 1928: Dominion Aircraft Limited based its Avro 504 G-AACX at Gatwick from November 1928.
October 1929: the Southern Railway “announced plans to electrify the Brighton Main Line on the 660 volts DC third rail system, in addition to the stretch westwards from that town to Worthing, and to Reigate. In the Daily Mirror on Monday 19th January 1931, the cost of the works was stated to be £2,770,660, exclusive of new or converted rolling stock, and covered 52-track miles. Work commenced in that year and the first scheduled electric passenger services started to run as far south as Three Bridges from 17th July 1932. On 5th of the previous month, three-aspect colour light signalling had come into use between Coulsdon North, on the Quarry Line, and Balcombe Tunnel Junction (31¾-miles from London Bridge), and in stages was completed through to Brighton, the last section between the latter and Preston Park coming into use on 16th October 1932. From Coulsdon North to Norwood Junction, and between Coulsdon South and Earlswood, semaphores were retained, and the accelerated electric timetable came into use on the full length of the Brighton Main Line on 1st January 1933. This was the first main line in the country to be electrified and at the time comprised the longest continuous stretch of colour light signalling in the world.” [19]
The story of the electrification can be found here. [20]
1st August 1930: Ronald Waters, manager of Home Counties Aircraft Service (based at Penshurst Airfield in Kent), who had come into possession of Gatwick Aerodrome, got a licence for it. He founded the Surrey Aero Club there.
2nd–3rd August 1930: Flying began with pleasure flights for the local population in Avro 504s of Waters’ Surrey Aero Club.
1932: The Redwing Aircraft Company bought the aerodrome, and operated a flying school; it was also used for pilots flying in for races.
1933: The Air Ministry approved commercial flights from Gatwick.
September 1933: A. M. (Morris) Jackaman, who owned several light aircraft, bought the aerodrome for £13,500. He had bold ideas for its future, such as expanding it to make it suitable to use as a relief aerodrome for London (Croydon) Airport and providing a regular service to Paris using de Havilland DH.84 Dragon aircraft. He overcame resistance from the Air Ministry, which was concerned about the cost of draining the clayey land and diverting the River Mole.
The down “City Limited”, 5 pm. from London Bridge to Brighton, comprising ten coaches and two Pullmans, passing Hassocks in May, 1934, (c) Public Domain. [20]The all-Pullman electric express, renamed the “Brighton Belle” in 1934, approaching Balcombe. This train, composed of two five-coach sets, completed the return journey between Victoria and Brighton three times on weekdays and twice on Sundays, (c) Public Domain. [20]
1934: Jackaman oversaw Gatwick’s transition to a public aerodrome, licensed for non-private flights, and planned a proper terminal building linked to a new railway station on the adjacent Brighton Main Line. He formed a new airport company, Airports Limited. Hillman’s Airways became Gatwick’s first commercial airline operator, beginning scheduled services from the airport to Belfast and Paris.
January 1935: Hillman’s Airways moved to Gatwick from Stapleford Aerodrome.
1935: A new airline, Allied British Airways, was formed with the merger of Hillman’s Airways, United Airways and Spartan Air Lines. The new carrier, which later shortened its name to British Airways, became Gatwick’s principal operator. Dorking and Horley Rural District Council was concerned about possible compensation claims from local residents and the threat of facing liability for flying accidents, and it “could see no benefit” to allowing further development of the aerodrome.
6th July 1935: The aerodrome closed temporarily for renovations, which included building the “Beehive”, the world’s first circular terminal building.
30th September 1935: Tinsley Green station opened 0.85 mi (1.37 km) south of the present Gatwick station. It was served by two trains per hour on the Victoria-Brighton line.
October 1935: The contracted opening date, was not met, partly because of drainage problems.
17th May 1936: The first scheduled flight departed from the Beehive terminal at 1:30 pm, bound for Paris Le Bourget. Jersey Airways operated this flight with a DH.86 under contract to British Airways Ltd., whose livery the aircraft wore. The airfare was £4 5s (including a first-class rail ticket from London Victoria Station), and there were up to three flights a day. Later the same day, British Airways Ltd. introduced another new scheduled service from Gatwick to Malmö, which was routed via Amsterdam, Hamburg and Copenhagen. Total travelling time between Gatwick and Malmö was six-and-a-half hours.
25th May 1936: British Airways Ltd. and Southern Railway jointly launched scheduled air services between Gatwick and the Isle of Wight.
1st June 1936: Tinsley Green station was renamed “Gatwick Airport”.
6th June 1936: The airport was officially reopened by the Secretary of State for Air, Lord Swinton. It featured four grass landing strips which were linked to the terminal area by two concrete taxiways, one each for arriving and departing aircraft respectively. The Beehive, the new terminal, was officially opened the same day. The Beehive was designed by Frank Hoar and incorporated several novel features, including a subway to the railway station at Tinsley Green which allowed passengers to travel from Victoria Station to the aircraft without stepping outside (with a transfer time from train to plane of as little as 20 minutes). Air Travel Ltd (a company specialising in aircraft and engine overhauls which had relocated to Gatwick from Penshurst) moved into the new airport’s No. 1 hangar.
July 1936: British Airways Ltd. inaugurated regular night mail flights linking Gatwick with Cologne and Hanover.
September and November 1936: Two fatal accidents happened, raising questions about the airport’s safety. The area was foggy, and its clay soil drained poorly; this caused the new subway to flood after rain.
17th February 1937: Gatwick was declared unserviceable due to waterlogging following repeated, heavy rainfalls. Because of this tendency to flood, and because longer landing strips were needed, the pre-war British Airways moved to Croydon Airport. Gatwick returned to private flying, and was used as a Royal Air Force (RAF) flying school.
October 1937: The No. 19 Elementary and Reserve Flying Training School RAF (E&RFTS) began instructing future RAF pilots at Gatwick on de Havilland Tiger Moth and Hawker Hart biplanes. [13]
A rotunda was built to serve as the Airport Terminal. The Station shown here was on a site to the South of the old Gatwick Racecourse Railway Station, The Station was linked to the Beehive Rotunda by and underground walkway, (c) Historic England, EPW053263, 1937. [2]The layout of Gatwick Airport in the late 1930s and early 1940s. The location of Gatwick Racecourse Railway Station is to the left of this image close to the racecourse. The Beehive Rotunda Airport building is towards the right of this image, (c) Public Domain. [18]
1938: Airwork General Trading Co. moved into the hangar British Airways Ltd. had occupied at Gatwick. This enabled Heston-based Airwork to expand its aircraft manufacturing capacity on behalf of the Civilian Repair Organisation (CRO), which had awarded it a contract to modify Whitley bombers for the RAF. Southern Aircraft (Gatwick) Ltd. was another company working under contract to the CRO at Gatwick at the time. It had been licensed to assemble Stinson Reliants and Beechcraft Expeditors for the Royal Navy and also repaired damaged Beaufighters. [13]
25th June 1938: The first Daily Express Air Display was held at Gatwick. Aircraft participating in the flypast included a Short Empire flying boat, a Lufthansa Focke-Wulf Condor, a Sabena Savoia-Marchetti SM.83, several RAF types and aerobatic aircraft. [13]
1st September 1939: No. 19 E&RFTS ended its activities at Gatwick. [13]
3rd September 1939: Following the declaration of war on Germany, all civilian flying at Gatwick and elsewhere in the UK stopped. As a consequence, civil aircraft maintenance and manufacturing activities at the airport stopped as well. This resulted in the airport being requisitioned by the Air Ministry, and becoming a base for RAF night-fighters and an Army co-operation squadron during World War II (primarily for repairs and maintenance and as an alternative to RAF Kenley in the event that Kenley was rendered inoperable by enemy action). [13]
December 1939: The operations manager of British Airways Ltd., which had begun the process of merging with Imperial Airways to form British Overseas Airways Corporation (BOAC), inspected Gatwick to assess its suitability as a base for the combined operations of the merged airline. [13]
1940: BOAC maintenance personnel began overhauling Armstrong Whitworth Ensigns and other aircraft types at Gatwick. Horse racing at Gatwick ended and never restarted. [13]
1940 and 1941: RAF units relocated to Gatwick from France. The airport became closely associated with the RAF Army Cooperation Command. As a result, several Army Cooperation Command aircraft were stationed at Gatwick. These included Westland Lysanders, Curtiss Tomahawks and North American Mustangs. [13]
Late 1942: Gatwick began receiving RAF and USAAF bombers that were damaged or running short of fuel. The most common types were Avro Lancasters, Handley Page Halifaxes, Short Stirlings and Boeing B-17 Flying Fortresses. [13]
January 1945: Gatwick was taken over by the Supreme Headquarters Allied Expeditionary Force Disarmament Unit. As a result, it received a large number of transport and communications aircraft. [13]
Gatwick Airport and its Railway Station, 1945 to 1975
1950: Despite local opposition, the Cabinet chose Gatwick as an alternative to Heathrow (then known as London Airport). BEA launched a seasonal scheduled service to Alderney in the Channel Islands, which operated for three consecutive summer seasons until 1952. At the time, there were three operational runways. These were aligned South-West–North-East, East–West and South-East–North-West. The first was 4,200 ft (1,300 m) long, 150 ft (46 m) wide and covered in steel mesh; the second was 3,600 ft (1,100 m) long, 150 ft (46 m) wide and covered in steel mesh as well; the third was of the same length and width as the second but was grass-covered. [13]
May 1950: Gatwick’s first charter flight left the airport’s original grass runway for Calvi on Corsica (with a refuelling stop in Nice). Jersey-based UK independent airline Air Transport Charter operated this flight under contract to UK package tour pioneer Vladimir Raitz’s Horizon Holidays with a 32-seat Douglas DC-3 carrying 11 passengers. [13]
1950s: The railway stations had a reversal of fortunes in the 1950s as a result of that government decision to expand and develop the Beehive airport terminal into London’s second airport. Gatwick Racecourse station was rebuilt to serve Gatwick Airport, and was integrated into its terminal. On 27th May 1958, the rebuilt station, which took the name Gatwick Airport, was opened in conjunction with a regular train service; and services serving the former Tinsley Green station were discontinued. [14]
This later image show increasing hangar space and a significant number of aeroplanes, little has changed at the station, (c) Historic England, EAW050735, 1953. [3]The Airport and Station seen in 1953 from the West. Air travel has still not become what it is in the 21st century. There are no airliners in sight! Careful inspection will see limousines outside the terminal building. Old fighter aircraft litter the apron to the South of the terminal building. The station has a covered footbridge and four platform faces. Its connection to the Airport is no more than a white swing-gate at the end of the station building access path. There appears to be a small gathering of people around a vehicle close to the gate. One wonders at what time of day the photograph was taken as both station and airport seem devoid of passengers, (c) Historic England, EAW050736, 1953. [4]
Gatwick Airport saw major reconstruction in 1957 and 58. This image looks from the West towards the railway station in the distance. The image is embedded direct from the Getty image website. [5]
The next aerial image shows Gatwick Airport and Station in 1958.
Gatwick Airport after completion of the rebuild, seen from the North. The station now has six platform faces and a covered footbridge connects to the terminal building. The image was a double-spread in Steam World magazine in September 1997 (hence the distorted nature of the image. The dual carriageway is the A23. [6]
1958: The 1958 refurbishment of the railway station included a parcels’ office beneath the main concourse, lifts and a corridor on the south side of the overbridge, separated from the passenger corridor by a glazed partition. To accommodate trains of up to 12-carriage lengths, the three old Racecourse island platforms were raised by 1 ft (0.30 m) and extended to the north by about 100 ft (30 m), except for the very long westernmost platform, which was reduced from the south. The ticket office on the main concourse of the station was able to handle 670 separate issues of Edmondson tickets from its Bellmatic equipment. [14]
Gatwick Airport and Railway Station seen from the East in 1961, (C) Unknown. [9]
1962: Two additional piers were added to the terminal. [13]
1964: Gatwick’s original, relatively short late-1950s paved runway was extended by 1,200 ft (370 m) to 8,200 ft (2,500 m) due to new noise rules governing the operation of jet aircraft at airports near (or surrounded by) densely populated urban areas. [13]
1965: By now, each of the three piers was nearly 1,000 ft (300 m) long, and the terminal complex had a floor area of 100,000 sq ft (9,300 m2). [13]
Gatwick Airport and Railway Station in 1970, (c) Unknown. [10]
1970: A second 875-foot (267 m) extension of Gatwick’s runway was completed, bringing it to 9,075 ft (2,766 m) and allowing non-stop jet flights to the US east coast with a full payload and full range and payload operations by British United Airways and Caledonian Airways BAC One-Eleven 500s. [13]
1973: The third extension of Gatwick’s runway was completed, bringing it to 10,165 ft (3,098 m) and allowing for non-stop narrow-body operations to the US west coast and commercially viable, long-range wide-body operations. [13]
Gatwick Airport and Railway Station in 1975, (c) Unknown. [11]Gatwick Airport in 1975, (c) Unknown. [12]
1975 onwards
Late 1970s: Government initiatives supporting Gatwick’s development resulted in steady growth in passenger traffic. Among these were policies seeking to transfer all scheduled services between London and the Iberian Peninsula from Heathrow to Gatwick, banning whole-plane charters at Heathrow and requiring all airlines planning scheduled services to London for the first time to use Gatwick instead of Heathrow. This policy was known as the London [Air] Traffic Distribution Rules. The government also approved a high-frequency helicopter shuttle service linking Gatwick with Heathrow. [13]
Late 1970s and early 1980s: Fully extendible jet bridges were added when the piers were rebuilt and extended. [13]
1980s: In the 1980s, the railway station was refurbished again. It had six platforms immediately beneath the airport’s South Terminal. [14]
1983: As passenger numbers grew, a circular satellite pier was added to the terminal building connected to the main terminal by the UK’s first automated people mover system. (This replaced the original North pier dating from 1962, and the people mover connecting the main terminal with the satellite pier was subsequently replaced with a walkway and travelators). A second terminal was planned, and construction began on the North Terminal on the land earmarked for a second runway in the draft plan of May 1970. This was the largest construction project south of London in the 1980s, costing £200 million. [13]
1984: Gatwick’s new air-traffic control tower opened, the tallest in the UK at the time.[123] The Gatwick Express was launched by British Rail, the world’s first non-stop airport-to-city-centre rail service (between the airport and Victoria Station). [13]
1988: On 18th March 1988: The North Terminal was opened by Queen Elizabeth II (including an automated rapid transit system link to the South Terminal). [13]
1991: A second aircraft pier was added to the North Terminal. [13]
1994: The North Terminal international departure lounge and the first phase of the South Terminal international departure lounge opened, at a cost of £30 million. [13]
1998: The main runway was extended for a fourth time, reaching 10,879 ft (3,316 m), to enable longer-range operations with wide-body aircraft. [13]
2000 to 2001: Gatwick’s two terminals were further expanded to add seating, retail space and catering outlets, at a cost of £60 million; this included an extension to the North Terminal departure lounge, completed in 2001. [13]
2005: An extension and refurbishment to the South Terminal’s baggage reclaim hall (doubling it in size) was completed. [13]
May 2005: Pier 6 opened at a cost of £110 million, adding 11 pier-served aircraft stands. The pier is linked to the North Terminal’s main building by the largest air passenger bridge in the world, spanning a taxiway and providing passengers with views of the airport and taxiing aircraft. [13]
May 2008: An extension of the South Terminal’s departure lounge was completed, and a second-floor security search area opened. This terminal is now primarily used by low-cost airlines; many former users moved to the North Terminal.
2010s: On 13th October 2010, a £53 million redevelopment programme for the railway station was announced to provide another platform capable of accommodating 12-car trains, refurbishment of the concourse, and track and signal upgrades. Escalators and lifts were provided for platforms 5 and 6, replacing a staircase to achieve improved circulation. The redevelopment provided improved capacity and flexibility on the Brighton Main Line. The project was jointly financed by Network Rail, who contributed £44.9 million, and Gatwick Airport who provided £7.9 million. Construction was structured so as not to negatively affect the 2012 Summer Paralympics, which was hosted in London. [14]
May 2013: Demolition began of Pier 1, Gatwick Airport’s second-oldest pier (the original 1962 South pier of what is now the South Terminal) for its replacement with a £180 million, two-storey structure with five pier-served aircraft stands and an automated baggage-storage facility, operational by summer 2016. [13]
2014: By 3rd February 2014, completion of the work on the Railway Station was marked by a ceremony officiated by Minister of State for Transport Baroness Kramer, who formally opened the new platform. Constructed by VolkerFitzpatrick, platform 7 is served by a 975-metre (3,199 ft) loop from the down fast line and used by services which formerly used at platform 5. VolkerFitzpatrick were responsible for track and signalling modifications. This has allowed platforms 5 and 6 to be dedicated to Gatwick Express services, thereby eliminating previous conflicts with slower services when they crossed to platforms 1 and 2. The project was finished on schedule and budget, despite extreme weather conditions during the winter of 2013/2014. [14]
In 2014, Baroness Kramer announced that the government had committed £50 million towards further improvements of the railway station. A scheme for further improvements, estimated to cost around £120 million, was announced by Network Rail. [14]
2016: On 1st February 2016, Caroline Ansell, the MP for Eastbourne, officially opened the redeveloped pier 5 of Gatwick’s North Terminal. The redevelopment of pier 5 cost £80 million and forms part of the airport’s £2 billion improvement programme under GIP ownership. Its main feature is an additional second level that separates departing and arriving passenger flows vertically to increase capacity by an additional 30 flights or approximately 2,400 passengers per day. This increase in capacity is achieved by accommodating up to seven large and 12 smaller aircraft (or a combination of both) at the pier’s redesigned aircraft stands to enhance operational flexibility for airlines and passengers and make passenger journeys smoother. [13]
2018: In April 2018, Network Rail submitted a planning application for modernising the railway station; doubling the size of the concourse, widening two platforms, and improving connections to the airport terminal. It was done in partnership with Gatwick Airport authorities, the Coast to Capital local enterprise partnership and the Department for Transport. The expansion is an element of a five-year programme, costed at £1.11 billion, announced by Gatwick Airport in early 2018. [14]
Amongst others, the main projects covered by this £1.11 billion include: a westward extension of the North Terminal’s pier 6, involving the relocation of the A380 stand to pier 5 and related widening and reconfiguration of a taxiway to enable A380 operators to access the new stand at pier 5; a dedicated domestic arrival and baggage reclaim facility in the South Terminal; and connecting the new Boeing hangar with the airfield.
2020s: Construction on the new railway station concourse began in November 2020. The refurbished station opened on 21st November 2023. [14]
The ticket office is staffed for ticket sales and enquiries, supplemented by ticket machines capable of handling online bookings usually available on a round-the-clock basis. Automated teller machines, payphones and e-mail access points are installed on the main concourse. There are coin-operated trolleys for luggage and a left luggage facility. On-site food and drink outlets are present. Toilets are available and baby changing facilities and additional toilets can be found in the adjacent South Terminal. There is no car parking facility. Transport for London’s (TfL) Oyster cards and contactless cards are accepted for travel at the station. [14]
Gatwick South Terminal and Railway Station in the 21st century. [Google Maps, September 2026]
A quick look at the Ordnance Survey maps of the North coast of Kent from the first half of the 20th century will show a veritable cat’s cradle of standard-gauge and narrow-gauge industrial railways. A similar survey of the Medway valley at the same period in the 20th century will show just how many individual Cement Works and other industries once existed there too. This article inevitably will not provide a comprehensive look at all industrial railways in the area.
The Oakwood Press produced two editions (1973, 1990) of a survey of these cement works. The second edition was an enlarged version of the first edition. Page references are to page numbers in the second edition.
The authors divide the various Cement works into three different geographical areas:
The Thames Estuary (working West to East)
The Medway Estuary
The Lower Medway
Part 1 – The Thames Estuary
This article looks at a number of the industrial sites on the southern banks of the River Thames Estuary. Industry along the River Medway will be covered in a future article or articles, as will industries in and around Chatham and to the East of Cliffe, Highamand Chatham.
It must also be noted that the details included in this article are much expanded on and probably also corrected in Robin Waywell’s book, ‘Industrial Railways and Locomotives of Kent‘ which came into my possession after this article had been completed. [61]
Before looking at the works described by Stoyel & Kidner and others, it is worth at least a glance at Erith situated further West along the River Thames. …
J. Parish & Co. Ltd
J. Parish & Co. was a historical industrial firm based in Erith, Kent, best known for operating the local Erith Loam Quarries and Ballast Wharf on Fraser Road. Established in the early 19th century (around 1805), the company supplied specialized moulding sands, silica sands, and high-quality natural loams to the British foundry and metal-casting industries.
It ran deep loam and sand pits off Fraser Road in Erith, utilizing industrial (4ft 0in) narrow-gauge locomotives to move ballast and sand. Its products (often marketed as the “Erith Range of Sands”) were widely utilized across UK metal foundries for core-making and casting. [8][9]
Hatherill & Hatherill tell us that, “Around 1800 sailing ships brought coal to London from the north east of England and, in 1805, John Parish started supplying ballast to the returning ships. The sand they supplied was quickly recognised in the north east as a rich loamy sand which was very suitable for foundry work. At first it was loaded from a wharf opposite the site of the first railway station, which was opened in 1849 but, in 1842, a new wharf was built which could, in later years, deal with ships of up to 650 tons.” [10: p11]
Horses handled the traffic at the start as the first locomotive, No. 1, did not arrive until 1864, built by Gilles, Wilson & Co., Works No. 185. It was an 0-4-0T with 6 inch cylinders. [10: p11]
Records show two further locomotives in use by Parish. These were: No. 2, an 0-4-0ST, built in 1881 by R. & W. Hawthorn, Works No. 1864 with 10″ cylinders; and No IV, another 0-4-0ST built in 1903 by Hawthorn, Leslie & Co., Works No.2565, with 12″ cylinders. These two locomotives served the quarries for decades, although only No. IV survived until the advent of road-motor vehicle haulage at the Works in 1957. [4, photo No. 75][10: p11]
Parish No. 3 was utilised for a steam excavator built by Grafton of Bedford which was used to remove the overburden from the underlying loam. [10: p11]
This 6″ Ordnance Survey map extract from the early 20th century shows Parish’s rail network connecting the Loam and Ballast Pits (bottom-left) with the Wharf on the River Thames (top-right). West Street can be seen running parallel to the River Bank with just some relatively narrow buildings in between. [11]The same area in the 21st century. [12]
West Street level-crossing allowed both Parish’s narrow-gauge line and Frazer & Chalmers’ standard-gauge line to access the wharves on the river bank.
Hatherill & Hatherill tell us that, “the crossing was also across the Erith Council Tramway system which ran along the road. There was a level crossing with four gates and a crossing cabin from which the gates were worked. When a train came down from the quarries a ship’s bell on the corner of the cabin was rung and the gates were wound across the road. When, in 1957, the railway was replaced by a fleet of lorries, Parish’s continued to use their level crossing. When the gates were closed across the road lorries went past along the route of the railway. As they were travelling along a private right of way they did not need to be licensed!” [10: p13]
West Street Level-crossing as shown on the early 29th century 6″ Ordnance Survey mapping provided by the NLS. The council’s tramway does not appear on this extract. [11]
Over the 20th century, as industrial quarrying scaled down and local demands shifted, parts of their former quarry properties and surrounding land transitioned into residential and factory developments.
Stone Court Chalk, Land & Pier Co. Ltd
The Stone Court Chalk, Land & Pier Co. Ltd. was a 19th- and 20th-century mineral extraction and industrial company based in Stone, Kent, operating roughly from 1885 until the mid-20th century. It supplied raw Upper Chalk (Seaford Chalk Formation) to nearby cement plants, including works at Greenhithe, Albion, and the Kent Cement Works. These cement works are covered in detail below.
Dylan Moore tells us that “A chalk pit was already in existence at Stone Court Lodge in 1827. The Stone Court estate began shipping chalk from their wharf in 1864. In 1873, the Stone Court Chalk Quarries Company extended the wharf to deep water, and commenced shipping ballast, while looking for cement companies that might use their chalk. In 1879 the Williams Fry and Co. Ltd Albion plant was set up to the west of the wharf, and in 1880, Wilders & Cary’s Shield plant was set up to the east. In 1885 the company was re-launched as the Stone Court Land & Pier Co. Ltd. The Gillingham Portland Cement Co. Ltd set up the Greenhithe plant to the east of Shield in 1889, and in 1890 Rosher & East set up the Artillery plant inland between the quarries and the wharf. By this time, supply to the cement plants was the bulk of its trade, and chalk ceased to be shipped after 1894.” [44]
Dylan Moore provides maps of the various Chalk Pits in North Kent and the Stone Court Land & Pier Co. Ltd map shows two main quarry complexes: [44]
Lodge Quarry south of Elizabeth Street, including Johnson’s Hole – these workings were abandoned completely by 1964; and
A set of pits to the west on either side of Cotton Lane and to the South of the North Kent railway line – these pits were worked out by 1956.
These two map extracts show the areas eventually exploited by the Stone Court Chalk, Land & Pier Co. Ltd. Both show the area to the South of the North Kent main line.
The first extract is from the 6″ Ordnance Survey of 1895, Lodge Quarry was being expoited at this date. It’s workings would eventually extend South of London Road into what became known as Johnson’s Hole. [45]
Dylan Moore’s map showing the extent of the two quarry areas can be found here. [47]
The area of the Cotton Lane Chalk Pits as it appears on the 25″ 1895 Ordnance Survey published in 1897. At this time only the Lodge Quarry Works are being exploited. The Cotton Lane Pits would sit either side of the lane. which can be seen at the third point in this extract. [46]
British Industrial Callender’s Cables Ltd (BICC Ltd).
BICC Ltd. used a 3ft 6in gauge railway at their cable works at Belvedere, near Erith. The steam locomotives were converted to run on oil fuel.The line was in use by 1900 when the first locomotive arrived. The railway’s purpose was “was to bring pig lead and other materials from their wharf on the River Thames at Belvedere into the works and to move drums of finished cable around the works and yard. From the wharf, cable was exported all over the world.
BICC purchased three new Bagnall 0-4-0ST locomotives: [4: photos No. 91, 92 & 93]
Mighty Atom – built in 1900 by Bagnall, Works No. 1630, had 6″ cylinders
Woto – built in 1924 by Bagnall, Works No. 2133, had 7″ cylinders. Photos 91 and 92 show this locomotive.
Sir Tom – built in 1925 by Bagnall, Works No. 2135, also had 7″ cylinders. Photo No. 93 shows this locomotive which cost £1127 when new.
After the purchase of ‘Mighty Atom’ a second-hand Hunslet 0-4-0ST was purchased and a new 0-4-0ST from the Yorkshire Engine Co. before the last two Bagnalls were bought. [10: p13]
“Both Woto and Sir Tom worked until 1968 when the railway closed, having outlasted by several years … two Ruston diesels! The former were acquired for preservation and are now [1984] stored in Romford.” [4: photo No. 93]
The two Rushton & Hornsby diesel locomotives had been purchased in 1934. [10: p13]
This extract from the 6″ Ordnance Survey of 1931, published 1934 shows BICCs Works at Belvedere. [14]The same area in the 21st century. [Google Maps, August 2026]
British Oil & Cake Mills (BOCM) Ltd
Was sited close to the BICC Works and had its own standard-gauge rail network which employed a number of steam and diesel locomotives over time.
The Crabtree Trust exchange sidings were alongside the North Kent Line between Belvedere and Erith. They were on the down side of the line near the former Crabtree Crossing signal box. They once fed a network of industrial lines serving riverside factories and works along what is now Crabtree Manorway These industrial concerns included the BICC Cable Works, the BOCM site, Hercules Powder Co., Doulton’s Pipe Works and British Gypsum’s Works. By the 1980s, the entire complex was disused, overgrown, and eventually cleared.
These sidings consisted of three parallel reception sidings operated on behalf of local industry by BOCM. The locomotives shown on the image above would have been found at work in the sidings. [10: p18]
The Crabtree Trust Sidings are shown on these two extracts from the 25″ Ordnance Survey of 1931, published in 1933. [15][16]
Further details about this location can be found here. [17]
British Gypsum (Erith Works)
British Plaster Board Ltd. originally opened the waterfront works at Church Manorway, Erith in 1934 to process imported gypsum. Rebranded as British Gypsum in 1964, the historic manufacturing site eventually transitioned into the Saint-Gobain Build Better Academy, operating as its longest-serving training facility for plaster and drywall systems since 1966.
A number of 0-4-0 diesel locomotives were employed at this location at different times, including:
Crabtree – built in 1953 by Ruston & Hornsby, Works No. 338416 (Class 88Ds). [18]
Princess Margaret – built in 1948 by Barclay, Works No. 376. [18][4: photo No. 58]
Possibly also:
Taurus – built in 1951 by Fowler (VF D139, DC 2273)
Prium – built in 1955 by Fowler (VF D293, DC 2566)
The British Plaster Board works which were to become British Gypsum’s Works at Erith. The Crabtree Trust Sidings are off the West side of this 25″ OS map extract from the 1930s. [16]
Dartford Cement Works Ltd. [1: p11]
A short line ran from a wharf on Dartford Creek to a small works which opened in around 1891 and South to a pit close to the North Kent main line. Stoyel & Kidner indicate that the line was horse-worked and closed in 1911.
Artillery & Albion Cement Co. Ltd. [1: p11]
This was a 19th/early-20th century cement manufacturer located at Stone Court (Stone Marshes). Its operations combined chalk quarried by the Stone Court company and Medway clay, shipping goods via Stone Court pier before eventually being absorbed into a larger cartel operation. Stoyel & Kidner tell us that both Artillery & Albion were adjacent works which were absorbed into the British Portland Cement Manufacturers (BPCM) in 1910 but probably closed by 1913.
A series of works cluster at the top-right of this 6″ map extract, a tramway/railway runs Southwest to Artillery Works and Whiting Works centre-left and chalk pits to the South of the main line. These are all mentioned below. [3]
Three 0-4-0ST locomotives were associated with Artillery and Albion Works:
Stonecourt – had outside cylinders and was sold in about 1915. Nothing else is known about this locomotive.
Artillery – built in 1896 by Falcon, Works No. 240. It had outside cylinders and was transferred by APCM to Hilton Works at Halling when the works at Stone closed.
Albion – built in 1901 by Peckett, Works No. 915. It also had outside cylinders and was also transferred by APCM to Hilton Works at Halling when the works at Stone closed.
Shield Works, Greenhithe Works. [1: p11]
The Shield Works were only a short distance to the East of the Albion Works. Greenhithe Works were a little further East.
Associated Portland Cement Manufacturers (APCM), took control of Shield Works in 1900. Greenhithe Works was acquired by J.B. White in 1893.
Stone Court Chalk Land & Pier Co. Ltd. [1: p11]
Although not a cement producer, this company was later taken over by APCM. In 1885, this company took over a pier and tramway on Stone March close to the works covered above. Stoyel & Kidner tell us that “All [those works] were served by a railway of standard gauge, which also ran south, under the SER and Cotton Lane, to a chalk pit. Just north of the tunnel under the SER there was a whiting works. In 1908, the branch line to the Artillery Works was extended to an exchange siding with the SER North Kent Line When the Kent Works was built to the east, a cutting was made parallel to the SER and south of it, with a connection to the Stone Court line just north of Cotton Lane tunnel, so that material could be worked from the pit to the new works. At about the same time, a further cutting was made south of the SER to enable Stone Court trains to run to new pits to the west. Since this line had to tunnel under Cotton Lane twice and also under Moody’s Lane, at great depth, there were in effect three pits in line. Some chalk from here went to Kent Works; however the layout at Cotton Lane tunnel was such that these trains had to run into the whiting works, reverse into the pit, and then reverse out again to hand the train over to a Kent Works engine. Some time before the last War this was altered so that trains could run straight through. However, a company called the Atlas Stone Company had established itself by 1928 at the bottom of the original pit, being served by Stone Court trains with materials. In 1935, Stone Court Ballast Co. was working gravel pits near the river shore, using high-sided wagons, unlike the small chalk tippers. Much of this went to Atlas Stone, and in the latter years when a square crossing had been laid at Cotton Lane tunnel, this meant that trains from the gravel pits to Atlas Stone crossed the path of chalk trains from the pits to Kent Works, and it is said that ‘traffic lights’ were installed to control the crossing.” [1: p12]
The Company had ten locomotives all of which had outside cylinders, Stoyel & Kidner list them as:
Adamant – an 0-4-0ST built in 1877 by Manning Wardle, Works No. 649, 8″ x 14″ cylinders and 2′ 8″ wheels.
Bulldog – an 0-4-0ST built in 1860 by Manning Wardle, Works No. 13, 8″ x 14″ cylinders and ???? wheels.
Sundridge – an 0-4-0ST built in ???? by Hughes, Works No. ????, 11″ x ??” cylinders and ???? wheels.
James Godwin – an 0-4-0ST built in 1870 by Shanks, Works No. ????, 10″ x 20″ cylinders and 3′ 1″ wheels.
Quarrier – an 0-4-0ST built in 1891 by Falcon, Works No. 203, 11″ x 18″ cylinders and 3′ 0″ wheels.
Longreach – an 0-4-0ST built in 1896 by Falcon, Works No. 236, 11″ x 18″ cylinders and 3′ 0″ wheels.
Flintfield – an 0-4-0ST built in 1898 by Brush, Works No. 277, 12″ x 20″ cylinders and 3′ 0″ wheels.
W.H. Liversidge – an 0-4-0ST built in 1899 by Brush, Works No. 286, 11″ x 18″ cylinders and 3′ 0″ wheels.
Lion – an 0-4-0ST built in 1891 by Falcon, Works No. 205, 11″ x 18″ cylinders and 3′ 0″ wheels.
Iota – an 0-4-0T built in 1892 by Falcon, Works No. 211, 11″ x 18″ cylinders and 3′ 0″ wheels.
Stoyel & Kidner tell us that, “Sundridge, Quarrier, Longreach, Flintfield and W.H. Liver sidge were supplied new. There is some suggestion that Sundridge was a vertical-boilered locomotive which was scrapped just before the turn of the century, but no confirmation has been found for this. Adamant had previously belonged to the Britannia London Portland Cement Co. at Seacombe, Birkenhead. James Godwin was originally built for the Southampton Dock Co. but came to Stone from the London & St Katherine Dock Co. (their No. 16) some time before 1896. Bulldog and Lion came from the APCM’s Tolhurst Works at Northfleet and lota from their Gibb’s Works at West Thurrock in about 1925. lota was a side-tank with dropped footplate and low vertical clearance.” [1: p14]
“Locomotive Adamant was said to have been scrapped in 1918 and Bulldog at an unknown date. Quarrier, Longreach and W.H. Liversidge were scrapped in 1949 after the railway had been abandoned. Flintfield was lent to the APCM Works at Stone in 1947-1948 and was then sold to the Atlas Stone Co. Ltd for use on their adjoining premises. There is some suggestion that James Godwin was sold to a firm at Portland. Lion was transferred in 1946 to the APCM’s Swanscombe Works and was sold in 1948 to the Atlas Stone Co. Ltd. Iota was loaned to Alpha Cement Ltd, West Thurrock, from 1945 until 1946 when it was sold to the BPCM Works at Penarth, in South Wales.” [1: p14]
The company’s chalk operations ceased in 1949, its engines were either scrapped or sold to Atlas stone to serve gravel traffic. The company remained in existence until 1974 when its assets were transferred to APCM.
APCM Ltd Kent Works, Stone, Dartford. [1: p 14]
These works are covered in a separate article which can be found here. [2]
I.C. Johnson & Co. Ltd., Greenhithe. [1: p26-36]
Please see the article dedicated to this Works which can be found here. [5]
John Tilden & Co., Greenhithe. [1: p36]
A short-lived firm which operated in the 1860s out of Lamb Wharf Chalk Works at Greenhithe. When constructed, the enlarged Johnson’s Wharf covered the area of the old Lamb Wharf.
Stoyel & Kidner say that two locomotives were known to have operated at these Works. Both were Aveling & Porter locomotives, supplied new, chain-driven and recorded at work in November 1865:
Works No. 48, built in 1862, one cylinder (probably 8.5″ x 10″)
Works No. 132, built in 1864, one cylinder (9.25″ x 12″)
C. G. Down tells us that a William Tingley sublet some land to John Cubit Gostling who formed the Globe Portland Cement & Whiting Co. Ltd. Gostling was also owner of a Thames-side Cement Works. Later, in 1895, the works was purchased by John Bazely White & Bros. Ltd., owners of the Swanscombe Works on the Thames. Due to the recession in the industry though, the works was not used much subsequently, and was bought by APCM on 24th August 1900. [6]
Stoyel & Kidner’s research tells a different story. They say that in 1899 the company became the New Globe Cement Chalk & Whiting Co. and then moved to a different site further East. It then became part of BPCM. [1: p37]
It seems as though there is some uncertainty over what happened beyond those dates. It appears to be clear that the site of the Works was closed by the 1920s with the wharf being used for oil storage.
Stoyel & Kidner record five locomotives being used at the site: [1: p37]
Globe (?) – 0-4-0WTG built by Aveling & Paorter
Globe No. 2 – 0-4-0T built in 1897 by Kerr Stuart, Works No. 124.
Globe No. 3 – 0-4-0ST built in 1901 by Peckett, Works No. 925.
Globe No. 4 – 0-4-0ST built in 1902 by Peckett, Works No. 967.
New Globe – 0-4-0ST built in 1901 by Peckett, Works No. 889.
The Aveling & Porter locomotive came second-hand, the others were purchased new. It is unclear what happened to the Aveling & Porter. Globe No. 2 may have seen service in France from 1916. Globe and Globe No. 2 may have been transferred to the APCM Works at Grays, Essex. [1: p37]
Though the Works closed in the 1920s, three of the locomotives were seen standing derelict at the site in 1929. Subsequently they were transferred to other Works: Globe No. 3 to BPCM, Greenhithe; Globe No. 4 to APCM, Northfleet (becoming No.5); and New Globe to BPCM, Greenhithe. [1: p37]
J.B. White & Bros Ltd., Swanscombe. [1: p38-49]
These works are covered in a separate article which can be found here. [7]
Operated by the Associated Portland Cement Manufacturers (APCM) Ltd, the Alkerden Clay Pits in Swanscombe, Kent, opened in 1909 to supply London clay for local cement works like Bevans and Kent. The clay was slurried on-site and pumped to main washmills. The Clay Pits closed in 1943.
A 2ft 8.5in narrow-gauge line served the Clay Pits. The railway gauge may have been dictated by the availability of locomotives, rolling stock and track panels from the Northfleet Works of Knight, Bevan & Sturge which operated on the same gauge. But, the Northfleet Works were not converted to standard-gauge until around 1926.
The pits sat between Watling Street and Alkerden Manor Farm near Swanscombe Wood. But were not deep level excavations, rather they spread over a relatively large area which led to the narrow-gauge rail network wandering over quite a large area and to the need to carry the railway over the line of the A2 on a long girder viaduct.
Stoyel & Kidner indicate that eight locomotives were used on this network of lines: [1: p51]
Swift – 0-4-0TV, built by Knight, Bevan & Sturge (?)
Rapid – 0-4-0TV, built by Knight Bevan & Sturge (?)
Alert – 0-4-0TV, built by Knight Bevan & Sturge (?)
Clinker – 0-4-0ST, built in 1917 by Bagnall, Works No. 2068, outside cylinders (8″ x 12″) with 2′ 0.5″ wheels.
Meteor – 0-4-0ST, built in 1893 by Black Hawthorn, Works No. 1085, outside cylinders (8.5″ x 16″) with 2′ 6″ wheels.
Planet – 0-4-0ST, built in 1902 by Hudswell Clarke, Works No. 631, outside cylinders (8.5″ x 16″) with 2′ 6″ wheels.
Comet – 0-4-0ST, built in 1921 by Hawthorn Leslie, Works No. 3506, outside cylinders (8.5″ x 16″) with 2′ 6″ wheels.
Rocket – 0-4-0ST, built in 1930 by Hawthorn Leslie, Works No. 3788, outside cylinders (8.5″ x 16″) with 2′ 6″ wheels.
Stoyel & Kidner tells us, “Very little is known about the three vertical boiler locomotives, all of which had been scrapped by 1931. … The Bagnall was obtained from C.J. Wills, Grimsby probably in 1921 when it was converted from 2ft 6 in. gauge. … Meteor, Planet and Comet were transferred in 1928 from Bevan’s Works, Northfleet. Planet was ordered from Chapman & Furneaux and carried their works plates (No. 1215, 1902) but this was the period when the firm was in difficulties, leading to its acquisition by Hawthorn, Leslie & Co. Ltd, and evidently the order was sub-contracted to Hudswell Clarke & Co. Ltd. Rocket was delivered new to the Alkerden pits. Clinker had gone by March 1943 and the remaining four, which were basically of the same design, were scrapped during 1943. The railway was superseded at about that time. Whites obtained clay from Cliffe from 1937.” [1: 51]
The area of Alkerden Clay Pits in the 21st century. The area to the West of the B255 is now occupied by Bluewater Shopping Centre. [Google Maps, August 2026]
These three concerns clustered together on the Northwest side of Robin’s Creek.
The three Cement Works, highlighted above, all appear in this map extract. Robin’s Creek is the Creek shown in the bottom-right corner of the extract. Northfleet Paper Mills was rail served as well. It sat just to the West of the Britannia Cement Works and just off the left edge of this extract. A line serving the Paper Mills can be seen leaving the left edge of this extract a little to the North of London Road. [33]A similar area in the 21st century. The whole area has been redeveloped and even the major roads have been realigned and renamed. [Google Maps, August 2026]
Stoyel & Kidner say that all the Works were originally supplied with chalk from pits close to the Works but when that option was exhausted land across London Road was exploited. Northfleet Coal & Ballast Co. Ltd. held the wharf on the Thames and handled the transport for all of the companies. The first of those pits were only just the other side of London Road, in fact, just off the bottom corner of the map extract above. [1: p51]
London Road is at the top of this next extract, the tramway from the cement works and the river wharf enters the extract at the top-right. It passes under London Road. The branch leaving the extract on the right runs parallel to the North Kent line on a 1 in 40 gradient to a transhipment point in the sidings at Northfleet Railway Station , the remaining lines serve the chalk pits, one of which tunnels under the main line railway. [33]
On the right side of this extract an engine house sits next to a tramway that served other concerns to the East.
Stoyel & Kidner note that the 1 in 40 gradient between the Works and Chalk Pits and the railway station sidings required double-heading for trains as short as 4 or 5 wagons. [1: p52]
The Northfleet quarries were worked out by 1920 and sold in 1921. [1: p52]
Stoyel & Kidner express surprise at the size of the locomotive fleet that served this series of concerns. They mention that there were two or three different owning companies, but provide a single list of the locomotives used:
Peveril – possibly built in the 1840s at the Edge Hill works of the Grand Junction Railway – purchased second-hand from E. W. Goodenough, Northfleet. Scrapped circa. 1900. [1: p53,54]
Fly – an 0-4-0ST probably built in 1864 by Manning Wardle, Works No. 111 – it had outside cylinders. If correct, this locomotive was sent on test to Ryde Pier Tramway on the Isle of Wight in 1864. Appears to have disappeared in 1919! [1: p53,54]
Fox – an 0-4-0ST built in 1871 by Henry Hughes and purchased new – it had outside cylinders (11″ x 18″), the wheel size is not given. Scrapped in 1930. [1: p53,54]
Loughborough – an 0-4-0ST built in ???? by Henry Hughes and purchased new – it had outside cylinders (9″ x 15″), the wheel size is not given. Transferred to West Thurrock circa. 1913. [1: p53,54]
Northfleet – an 0-4-0ST built in ???? by Henry Hughes and purchased new – it had outside cylinders (11″ x 18″), the wheel size is not given. Transferred to West Thurrock circa. 1902/1903.
Kilmarnock – an 0-4-0ST built in 1886 by Barclay, Works No. 282 and purchased new – it had outside cylinders (11″ x 18″) and 3′ 3″ wheels. Transferred to West Thurrock circa. 1913.
Swanscombe – an 0-4-0ST built in 1891 by Barclay, Works No. 699 and purchased new – it had outside cylinders (11″ x 18″) and 3′ 5″ wheels. Transferred to West Thurrock circa. 1913 (later entered preservation at Quainton Road).
W. H. Davies – an 0-4-0ST built in 1899 by Brush, Works No. 282 and purchased new – it had outside cylinders (??” x ??”) the wheel size is not given. Scrapped in 1957.
Torpedo – an 0-4-0ST built in 1886 by Peckett, Works No. 449, purchased second-hand in 1920 from A. R. Adams, Newport, Monmouthshire – it had outside cylinders (10″ x 14″) and 2′ 6″ wheels. This locomotive was previously used in the construction of GWR Wootton Bassett to Patchway line. Scrapped in 1930.
Denis – an 0-6-0ST built in 1902 by Manning Wardle, Works No. 1561, was purchased second-hand from G. Shellabear, Park Royal – it had inside cylinders (12″ x 17″) and 3′ 0″ wheels. It had been used by D. Shanks (contractor) with whom it carried the name of Coronation. Scrapped circa. 1945.
Dolphin – another 0-6-0ST built in 1879 by Manning Wardle, Works No. 725, was purchased in 1925 from the Southern Railway at Folkestone Harbour (No. A752), previously it had been rebuilt at the SE&CR’s Ashford Works in 1911 – it had inside cylinders (12″ x 17″) and 3′ 0″ wheels. Scrapped circa. 1945.
Bradley – an 0-4-0ST built in 1950 by Peckett, Works No. 1938 and purchased new – it had outside cylinders (12″ x 20″) and 3′ 0.5″ wheels. Scrapped circa. 1945.
Victory – an 0-4-0ST built in ???? by Dick & Stevenson Works No. ???, was another second-hand locomotive which came on loan from the Ministry of Supply in 1942 (their No. P234) it had outside cylinders (14″ x ??”) and the wheel size is not given. Prior to coming to Northfleet, it served at MoD Kinnerley. It only remained in Kent until 1943 before moving on to an unknown destination in Yorkshire. [1: p53,54]
Northfleet – another 0-4-0ST built in 1946 by Peckett, Works No. 2080 and purchased new – it had outside cylinders (12″ x 20″) and 3′ 0.5″ wheels. Scrapped in 1967.
The New Northfleet Cement Works
This new Works was not constructed until the end of the 1960s and became operational in the 1970s. It was predominantly built on brownfield land which included the sites of: Bevan’s Cement Works (Northfleet); the Crown Portland Cement Plant; and the London Portland Cement Plant.
This plant and the associated sidings is covered in another article about which can be found here. [33]
These Works are covered in a separate article which can be found here. [34]
London Portland Cement Co. Ltd., Northfleet [1: p62] and Crown Portland Cement Co. Ltd., Northfleet. [1: p62]
London Portland Cement Works were opened in 1868 just to the East of the Bevan Cement Works. There was a short tramway to pits north of the High Street. In 1900 these Works became part of APCM but were closed in 1908.his was one of the constituents of the APCM on the formation of the latter in 1900, but it soon became redundant and was closed in 1908, by which time the tramway had been extended through a tunnel under Granby Road to pits and a brickworks at Calleybank. Stoyel & Kidner state that “Latterly the system seems to have been integrated with that of the Crown Portland Cement Works lying just north-west. When the line serving Bevan’s Works was opened in 1929 to the exchange sidings on the ex-LC&DR near Rosherville, it used part of this old line including the tunnel under Granby Road, as well as part of the route of another earlier tramway which ran from a point just north of the crossing of the LC&D over the SER, via a whiting works and a white lead works, to Red Lion Wharf.” [1: p62]
More details of these Works can be found here [37] and here. [38]
Stoyel & Kidner note two standard gauge locomotives that they are sure were employed in conveying chalk to the works:
These two extracts from different 25″ Ordnance Survey sheets show the full extent of the lines associated with these two works before the turn of the 20th century. [35][36]
Locomotives
Vulcan built by Falcon in 1884, no more is known about this locomotive.
Unnamed – An 0-4-0ST built in 1877 by Manning Wardle, Works No. 651. It had outside cylinders (9″ x 14″) and 2′ 9″ wheels.
Of these two locomotives Stoyel & Kidner say that, “It is probable that Vulcan was supplied new but the Manning Wardle had originally seen service with the contractor William Moss in constructing the line between Peterborough and Seaton for the Midland Railway, at which time it carried the name Stafford. Its ultimate fate is unknown, but the boiler of Vulcan exploded in 1895 and it is likely that it was then scrapped.” [1: p62]
Red Lion Chalk & Whiting Co. Ltd., Northfleet. [1: p63] and Tolhurst & Sons Ltd., Gravesend. [1: p63]
Dylan Moore tells us that the Red Lion Wharf “was named after the local pub long before the Tolhursts arrived. Tolhurst’s initial business, from 1891, was export of chalk, and cement manufacture did not begin before 1896. There were initially 14 chamber kilns (output 406 tons/week) expanded to 19 around 1901 and to 38 (output 1100 tons/week) in 1907. In 1909, … After 1911 the plant was amalgamated with the Imperial plant. The rating in 1920 was 1000 tons/week. The remaining plant was described in the APCM 1924 schedule. There was no rail link, and all product was despatched by barge. After closure, the site remained derelict for many years before absorption into the Northfleet power station, now also cleared.” [39]
This indistinct extract from the 25″ 1895 Ordnance Survey, published in 1897, shows the Red Lion Wharf, the British White Lead Works, the Red Lion Chalk & Whiting Co. Ltd., and the associated chalk pits. The tunnel under London Road is just below the centre of the image. [36]
The Wharf and associated rails. [36]The Whiting Works and the tunnel under London Road. [36]
The Red Lion Cement Works in 1907 – 25″ Ordnance Survey of 1907, published in 1909. The Imperial Cement Works are on the left. [41]
Details of the locomotives used on the internal industrial railway serving this and the Imperial Works can be found under the Imperial Cement Works below.
Stoyel & Kidner tell us that, a tramway was laid in “about 1860 from Red Lion Wharf, Northfleet, to some limekilns near London Road, east of Woodfield Lodge: by 1870 a tunnel had been built under London Road and the tramway was exploiting the chalk land between there and Old London Road.” [1: p63]
Early ownership of the tramway is uncertain, but “in 1896 Tolhurst & Sons Ltd registered the Red Lion Chalk & Whiting Co. Ltd to take over his line, engines, works, etc. The railway was pushed further south-east and linked to the London Chatham & Dover Railway at Perry Street Siding. In 1898 land was sold for the erection of the Imperial Cement Co. Ltd mills, which by agreement had to take its chalk from Tolhurst. This was built partly on land formerly owned by a white lead works. All these works were serviced by Tolhurst’s standard gauge railway. The Red Lion Works was taken over by APCM in 1908 and closed in 1919; however part of the railway was used a few years later for a new entry to Bevans Works. The Imperial Works joined APCM in 1900 and closed in 1908, leading to litigation over the chalk agreement with Tolhurst which did not expire until 1948, ” [1: p63]
Imperial Cement Works
Stoyel & Kidner inform us that Tolhurst sold land “for the erection of the Imperial Cement Co. Ltd mills, which by agreement had to take its chalk from Tolhurst. This was built partly on land formerly owned by a white lead works. All these works were serviced by Tolhurst’s standard gauge railway.” [1: p63] It is clear that the Imperial Works were beholden to Tolhurst for their supply of chalk which Tolhurst’s rail network and locomotive provided first to the Imperial Cement Works and later to APCM/BPCM.
Dylan Moore tells us that there “were initially nine chamber kilns, output 205 t/week. A further 25 kilns were installed in the period 1899-1907 in 4 sets: two sets of 5 each of capacity 150 tons/week, 9 (260 tons/week) and 6 (175 tons/week), giving a final capacity of 940 tons/week. There was no rail link, and all product was despatched by barge. The plant’s operations were amalgamated with those of Red Lion from 1912, and re-assigned to APCM. The plant was described in detail in the APCM 1924 schedule. The kilns were demolished in 1923, and the site remained derelict for many years before absorption into the Northfleet power station, now also cleared.” [40]
Locomotivesused across the Red Lion, Tolhurst and Imperial sites
Bulldog – an 0-4-0ST built in 1860 by Manning Wardle, Works No. 13. It had outside cylinders (8″ x 14″). Its wheel size is not quoted. By 1871 this locomotive was in the ownership of j. Durden of Northfleet. It went to Stone Court Chalk, Land & Pier Co. Ltd.
Wolf – an 0-4-0ST built in 1890 by Falcon, Works No. 120. It had outside cylinders (??” x ??”). No wheel size is quoted, was transferred to Swanscombe Works.
Lion – another 0-4-0ST built in 1891 by Falcon, Works No. 205. It had outside cylinders (11″ x 18″) and 3′ 0″ wheels. It went to Stone Court Chalk, Land & Pier Co. Ltd.
Leopard – another 0-4-0ST built in 1896 by Falcon, Works No. 239. It had outside cylinders (11″ x 18″) and 3′ 0″ wheels. It was transferred to Crown & Quarry Works, Frindsbury.
Elephant – an 0-4-0ST Brush (Flacon/Henry Hughes), Works No. 287, built in 1899, it had outside cylinders (10′ x 18″) and 3′ 0″ wheels. After service at Tolhurst Works the locomotive was transferred to Kent Cement Works, Stone.
Stoyel & Kidner also tells us that Tolhurst “had an extensive railway serving its Gravesend works, of 3ft 6 in. gauge, laid down in the 1860s or before; it ran from a wharf between Rosherville Pier and Clifton Marine almost as far as what was later West Street. There were three kilns at various points on the system. It was not extended very much, but when the LCDR arrived in 1886 it had to build four bridges near West Street station over branches of the tramway. The site of the works and quarries was later used by the Imperial Paper Mills. One locomotive was said to have been named Diamond and to have been sold to the Imperial Paper Mills in 1948.” [1: p63]
The site of Tolhurst’s Works at Gravesend as it appears on the 6″ Ordnance Survey of 1895, published 1897. [42]The same site as it is shown on the 25″ Ordnance Survey of the same date. [43]
This site later became home to the Imperial Paper Mills in 1911. The Imperial Paper Mills are covered further below.
The Empire Paper Mills site and railway network as shown on the 6″ Ordnance Survey of 1938 to 1940, published in 1950. The line leaving this extract in the bottom left connected to the North Kent mainline to the East of Greenhithe Railway Station. The line leaving the extract bottom-right connected to the company’s paper store which sat alongside the A226. [21]
The Empire Paper Mills were owned by the Associated Press (later part of the Reed Paper Group network) as Empire Paper Mills Ltd in 1922. The main line connection to the works was severed in 1965 but the internal network operated until 1990. [23] The plant was sold to Norske Skog in 1991 before its final closure in 1922.
David Glasspool tells us that “From the outset the paper mill possessed a 24-inch gauge electrically-powered endless cable railway. This was double-track, linked the main jetty with the mill’s paper store, and upon it ran a fleet of wagons with removable tops. The latter allowed the tops of the wagons to be lowered into the holds of docked ships, filled with materials, and then hoisted back onto the chassis for onward travel within the mill. A series of sidings spurred off this network so static wagons could take refuge and not block the main tracks between the jetty and store. … A second railway network, again comprising a narrow gauge double-track line, ran from the jetty to the mill. This was elevated upon a steel structure and was dedicated to the transportation of coal from ships to the mill’s boiler house. It used a rake of wagons on an electrically-driven cable system, which took coal from a 100-foot-high unloading tower on the jetty and subsequently dumped this into hoppers. ” [25] Both these small networks ceased operating in the 1920s.
The standard-gauge network on the site hosted a number of different locomotives and rolling stock over time. There were three different standard-gauge locomotive ‘eras’ at the works. The line connecting to the paper store was constructed in the late 1920s. It was the last new length added to a network that was fist used in 1906/1907.
Glasspool tells us that in addition to a series of standard-gauge locomotives, “six rail-mounted steam cranes which ran on the standard gauge tracks … were used on the main jetty to unload materials from ships and could also be found handling goods within the main mill complex.
The three different standard-gauge ‘eras’ were:
A. The fireless era 1906-1971
No. 1 – an 0-4-0F (fireless) locomotive built in 1907(listed as 1906 in some sources) by Orenstein & Koppel, Works No. 2499 me this was one of the first O&K fireless engines imported into Britain. In Reed ownership the locomotive carried the fleet number S/10.
No.2 – also an 0-4-0F locomotive, built in 1917 by Andrew Barclay Sons & Co., Works No. 1561. This locomotive was purchased second-hand from the Royal Ordnance Factories. In Reed ownership the locomotive carried the fleet number S/11.
Andrew Barclay No. 1471 – another 0-4-0F locomotive, originally built in 1916 for Vickers Ltd to work at the National Filling Factory at Morecambe. It was one of three such locomotives supplied by Andrew Barclay to Vickers to work at Morecambe – Works Nos 1471-3 of which 1472 and 1473 have been preserved. 1471 appears to have operated at the Empire Paper Mills later in its life. [26]
Andrew Barclay No. 1471 on site at Empire Paper Mills, Greenhithe in 1968, (c) N. L. Cadge – this low quality image is made available for record/research purposes. [27]
B. Transitional Steam
Nelson – an 0-4-0ST built by Peckett in 1935, Works No. 1880. [4: photo No. 104]. This locomotive was purchased from Aylesford Paper Mill in 1967. Its tenure at Empire Paper Mills was brief. It was scrapped in 1969.
A photograph of this locomotive at Empire Paper Mills can also be seen here. [28]
C. Dieselisation 1968-1971
Diesel traction started to creep onto the scene at Empire Paper Mills in 1968:
No.3 – was a conversion of an Andrew Barclay 0-4-0ST locomotive, Works No. 2167 which was built in 1946. The conversion was undertaken in 1963 and the locomotive arrived at Empire Paper Mills in 1968. It was found to be unreliable and was scrapped in 1971. [29]
Purchase of three further diesel locomotives was to follow:
Paxman – an 0-4-0 diesel-electric built in 1958 by Ruston & Hornsby, ‘200DE’ Class, Works No. 412718 was purchased from a Darwen paper mill in Lancashire in March 1970. The loco was subsequently acquired by the North Downs Steam Railway at Dartford in September 1990, but it has since been scrapped. [23]
Airman – also an 0-4-0 diesel-electric built in 1958 by Ruston & Hornsby, ‘200DE’ Class, Works No. 412716 was purchased from New Northfleet Paper Mills when that works closed in 1971. [29] Although these details are worth further checking as this locomotive appears not to have been based at the New Northfleet Paper Mills. [32]
Batman – another 0-4-0 diesel-electric built in 1958 by Ruston & Hornsby, ‘200DE’ Class, Works No. 412717 was purchased from New Northfleet Paper Mills when that works closed in 1971. [29] David Glasspool suggests that this locomotive was, in fact, a ‘Class 88DS’. [32]
These three Rustons continued to work the yard well into the 1970s after the fireless fleet went. The connection to the North Kent Line was lifted around 1958 and the internal system finally closed with the mill in 1992. [29]
New Northfleet Paper Mills (Bowater’s Thames Mills)
The standard-gauge railway network at the Northfleet/Thames paper mills utilized fireless 0-4-0 steam locomotives and later diesel shunters to prevent fire hazards from sparks near flammable paper products. The most prominent locomotive associated with the site is an Andrew Barclay 0-4-0F fireless engine built in 1925.
David Glasspool tells us that “A pre-war boom in newspaper circulation saw [W. V. Bowater & Sons] purchase, in May 1914, the site of a redundant dockyard, where it proposed establishing its first paper mill for the production of newsprint. The site was previously known as “Northfleet Dockyard”, this having originally been commissioned in 1788 by one Thomas Pitcher. … The outbreak of war in July 1914 stalled Bowater’s plans for a mill at Northfleet and construction work did not commence until 1924. As part of the scheme, a new company by the name of “Bowater’s Paper Mills Limited” was formed in the previous year. ” [31]
Glasspool continues: “the extensive railway system commissioned at Thames Mills, Northfleet, … was linked to the Southern Railway’s branch line to Gravesend West Street by a ¾-mile-long single track, a junction being formed at Rosherville Sidings. The connection with Thames Mills reused a tunnel through the chalk ridge underneath London Road, originally bored for the railway network of the defunct Red Lion Cement Works. In addition to Thames Mills, the single track also linked the Gravesend West Street branch with the London Portland Cement Works. The latter had been commissioned in 1868 under the name “Messrs. J. C. Gostling & Co”, becoming the “London Portland Cement Company” in 1876 after a takeover. The works were situated on a large site just west of Thames Mills, the two being separated by allotment gardens.” [31]
Fireless locomotives were used here as in the other papermills on the Thames estuary.
New Northfleet Paper Mills in 1946 as it appears on the 6″ Ordnance Survey of 1946, published in 1951.The line leaving the map extract in the bottom-right corner linked the site to the Gravesend Branch to the West of Rosherville Halt at Rosherville Sidings. [30]
As already noted, the mills were built on the site of Northfleet Dockyard which covered an area of 18 acres and ran along the southern edge of the Thames for 960-feet. The first ship launched from here in 1789 and the site grew to incorporate seven shipbuilding slips and a dry dock. The dockyard ceased operations in 1860. The shell of the dockyard, complete with building slips, was still in existence at the time of Bowater’s purchase in 1914. [31]
No. 1 – was Andrew Barclay No. 1876, it was the first locomotive to work on the site. It was an 0-4-0F locomotive built in 1925, arriving at the Works in September 1925. With a hiatus for WW2, when newsprint production ceased in favour of the manufacture of munitions, supplies of pulpwood from Canada and Scandinavia, were unloaded from ships onto the deep water jetty on the Thames. From there, the raw material was conveyed to the mills via the internal railway system. [32]
No. 2 – was also an Andrew Barclay locomotive, Works No. 1962, built in 1928. It too was an 0-4-0F locomotive.
In 1957 as part of significant expansion plans, two newly-built diesel locomotives arrived at Northfleet, both having been manufactured by ‘Ruston & Hornsby’ : Class 165DE; Works No. 416209; and Class 88DS; Works No. 412427. These became, respectively, No. 3 and No. 4. [32]
Because of a concern about fire risks, the Imperial Paper Mills ordered two fireless locomotives from German company “Orenstein & Koppel”, the first (Works No. 4708) arriving in time for the mills’ opening in 1911, the second (Works No. 5900) coming in the following year. David Glasspool says that, “These were distinctive locomotives, not only for the fact that they possessed a reservoir and not a boiler, but also given that their pistons were rear-mounted underneath the cab. The latter gave the impression that the chassis had been constructed back-to-front. Orenstein & Koppel had earlier produced a fireless locomotive in 1906 for the Empire Paper Mills, Greenhithe, situated 2¾-miles to the west.” [22]
David Glasspool continues: “The first British manufacturer of fireless locomotives was Andrew Barclay Sons & Company, Ltd of Kilmarnock, Scotland, which started producing these engines in 1912. The company built several of these locomotives during World War I when, of course, it was no longer possible to source them from Germany. The Imperial Paper Mills initially ordered two of these from Andrew Barclay, the first (Works No. 1471) arriving in Gravesend in 1916 and the second (Works No. 1496) being delivered in 1917. These engines possessed cylinders of 15-inch diameter, had an 18-inch stroke, and their reservoirs were charged with steam to a pressure of 160lbs per square inch from a static boiler of 165lbs per square inch pressure. The arrangement was of the 0-4-0 type, the wheels being 3-feet in diameter and the wheelbase extending to 6-foot 6-inches.” [22]
NB: Other authorities suggest that No. 1471 was not supplied to Imperial Paper Mills but rather came directly to the Empire Paper Mills after service in Morecambe. Some notes are provided in the section relating to the Empire Paper Mills above.
A final fireless locomotive purchased for the Imperial Paper Mills was Imperial No. 1, an 0-4-0F built in 1956 by Andrew Barclay, Works No 2373. It cost £6,790.
Imperial Paper Mills were sited between the River Thames and the Southern Railway’s Gravesend Branch. These are the Mills as they were mapped in 1946 on the 6″ Ordnance Survey of 1946, published in 1951. As can be seen, the internal railways were extensive. [30]
Francis & Co. Ltd., Cliffe. [1: p64]
Francis & Co. Ltd., was a 19th- and early 20th-century cement manufacturing firm that operated works and quarries in Cliffe (Cliffe-at-Hoo), Kent. The company operated their original Nine Elms plant near Vauxhall Bridge in central London until it was taken over by the South Western Railway in 1867, when the plant at Cliffe was established. The company also took land at Cliffe Creek and Cliffe Quarry. Dylan Moore tells us that production of cement continued through to the APCM takeover of the company in 1900. “Cement manufacture formally ceased with the … takeover. … The plant continued making whiting, and remained the despatch point for cement. Cement activities ceased in 1921, but whiting manufacture continued into the 1930s. The plant had no landward communications except for the quarry tramway, and all transport was by barge. The wharf continued in use until the 1960s in connection with the supply of clay from the marshes to the Thames plants.” [48]
This old photograph shows the original bottle kilns, connected to a common steel stack, some time after closure, viewed from the Thames. The stack was installed in 1879, following complaints from the neighbouring Cliffe Fort, that the unpleasant fumes were “injurious to the health of the soldiers stationed in the fort”. Rawmix high in salt produced dense white fumes during the middle stage of the burn, (Blue Circle Archive) (c) Public Domain. [48]The 6″ Ordnance Survey of 1895, published 1898, shows the original works a little further inland than the later works below. [51]
The Cement Works fall immediately adjacent to the edge on the 25″ Ordnance Survey (Essex) of 1895, published 1897. The Kent sheet of that date is unavailable on the NLS website. … Until 1900, the Works was producing Cement. After the turn of the century the Works functioned as a Whiting works. [50]
Creek Whiting Works in 1907 – 25″ Ordnance Survey of 1907, published in 1908. [49]Cliffe Quarry sits in a location a little further inland. [52]Cliffe Works circa. 1920., (Medway Archive Centre) (c) Public Domain. [53]
Initially the quarry and works were served by a canal which was replaced circa. 1871 by a 3ft 8.5in railway. Initially trains were steam-hauled. [55] there was no rail link to the wider rail network in Kent, all the product from the Works and Quarry was despatched by river barge. The Works were acquired by APCM in 1900 and closed in 1920.
Motive power was predominantly provided by Aveling & Porter engines. Although the first locomotive used on site was an 0-4-0TV (vertical boiler) built in 1867 by Chaplin, Works No. 985. This locomotive was supplied through the agency of Wilmshurst & Co., London but was stated as being of 3ft 7.5in. Minor regauging was probably necessary! [1: p64]
Six Aveling & Porter locomotives were used during the life of the Works. Stoyel & Kidner list these as: [1: p64]
an 0-4-0WTG Aveling & Porter built in 1873, Works No. 915, one cylinder (8″ x 10″) geared steam locomotive with 3′ 0″ wheels. Believed scrapped on site.
a 2-2-0WTG Aveling & Porter built in 1880, Works No. 1594, one cylinder (8″ x 12″) geared locomotive with 5′ 0″ wheels. Believed scrapped on site.
an 0-4-0WTG Aveling & Porter built in 1887, Works No. 2229, two cylinders (5.5″ x 10″) geared locomotive with 3’0″ wheels. This locomotive was not completely new. It arrived on site in 1890. Stoyel & Kidner say that It “had an interesting background. It had been designed and built for work on the Brighton Tramways, but was found unsuitable and was returned to the makers, who rebuilt it in more conventional form. It retained its two high pressure cylinders, however, and in this respect was probably unique amongst Aveling & Porter’s railway locomotives.” [1: p66] Believed scrapped on site.
a 2-2-0WTG Aveling & Porter built in 1880, Works No. 2428, one cylinder (8″ x 12″) geared locomotive with 5′ 0″ wheels. This locomotive was still on site in 1938, standing abandoned in the shed and may have been used for target practice for anti-tank weapons.
No. 3, an 0-4-0WTG Aveling & Porter built in 1899, Works No. 4360 compound cylinder (8.875″ x 14.125″ x 14″) geared locomotive with 4′ 0″ wheels. This locomotive was sent to Albert Batchelor Ltd. at Halling.
an 0-4-0WTG Aveling & Porter built in 1900, Works No. 4537, compound cylinder (8.875″ x 14.125″ x 14″) geared locomotive with 3′ 6″ wheels. This locomotive was sent to the BPCM Works at Greenhithe.
And after closure, one of the wagons was adapted by William Herbert Slater circa. 1935. He fitted sails to create a sail-powered mail/supply trolley (“Land Ship”) used for the marshes.
William Slater’s ‘Land Ship’. It was used, according to Stoyel & Kidner to access the shore among other things to dig for worms and inspect the sea defences. Constructed out of a standard 2-foot narrow-gauge ‘Vee’ side-tipping skip wagon. The heavy bucket was removed, but the remaining frame and triangular metal side struts made an ideal foundation to securely brace makeshift wooden masts. [1: p64][56]
This extract from the mapping provided by railmaponline.com shows all of the lines in the immediate area of the Cliffe works and quarry. The railways associated with Francis & Co. Ltd’s operations (above) are the most northerly group of green lines. These were 3ft 8.5in-gauge lines. The later narrow-gauge railways of the Alpha/Thames Works are also shown green. Brown is used to designate the later standard-gauge branch line. [57]
Alpha Cement Co. Ltd., Cliffe. [1: p65]
Dylan Moore writes that “Alpha called [this plant] Thames Works, but confusingly also referred to it as Rochester Works. In common with all the other Alpha plants, after 1934 it was called Alpha Works by the locals. The company was launched by builders’ merchants Broad and Co., as with British Standard, to escape the dictatorship of the Blue Circle monopoly. Although undoubtedly a very shaky operation, it escaped takeover by Red Triangle, but was bought by Alpha, who, as at other plants, installed calcinators which were subsequently removed by Blue Circle. There was for most of the plant’s history no rail link, and the plant relied largely on river transport. The plant was originally connected to a wharf on Higham Creek at Cliffe Fort, initially by a 1.59 km ropeway used to send out cement and bring in coal. In 1935 this was replaced by a 2 ft gauge tramway leading to a new deep water wharf adjacent to Cliffe Fort. A substantial part of the plant’s output was shipped to Scotland. A short branch rail line was extended to the plant in 1961, with six bulk loading silos, and trains to Uddingston, near Glasgow, began.” [54]
Stoyel & Kidner tell us that the Works was built in 1912 and acquired by the Alpha Group in 1934. At that time an original ropeway was replaced by a narrow-gauge railway which ran Northwest from the Works to the Jetty. The plant and jetty were isolated from the rail network in Kent until circa. 1960 when a line was installed which connected with the Grain branch near Lower Higham. [1: p65-66]
The 25″ Ordnance Survey of 1939/40, published in 1946, shows the Alpha owned Thames Cement Works as it was before WW2. The railway which served the site and linked it to the River Thames was 2ft-gauge (610mm). [58]
Locomotives
Peldon -The works utilized internal narrow-gauge equipment, including a John Fowler 40 hp ‘Resilient’ class diesel locomotive named Peldon (Works No. 21295 of 1936), which was later preserved at the Amberley Museum. It is powered by a 40hp Fowler Sanders 4 cylinder engine, No. M443, B series. Peldon is now the only working example of a 2ft gauge, Fowler Resilient 4w industrial diesel locomotive. It was built by John Fowler & Co (Leeds) Ltd for the Essex Water Authority for use during the construction of the Abberton Reservoir near Colchester, Essex.
After the Water Authority had no further use for it, the loco was sold, with “Layer”, to the Alpha Cement Company, at Cliffe at Hoo, Kent. It was acquired for preservation by the Brockham Museum Trust, and transferred to Amberley with the Brockham collection in 1982. The locomotive was acquired in a rundown, derelict state, and was restored by volunteers at Amberley, finally re-entering service in 1987. [59]
‘Peldon’ on location at Amberley, (c) kitmasterbloke and licensed for reuse under a Creative Commons Licence (CC BY-SA 4.0) . [59]An unidentified member of the trio of Fowler engines at the Quarry at Cliffe in the late 1960s. This photograph was posted by Dave Willis on the Cliffe at Hoo Historical Society Facebook Page on 1st March 2015. Permission to use in this article has been requested. [60]
Layer(Works No. 21294) – Built in 1936, by Fowlers, this sister locomotive also moved from Abberton to Cliffe. It survived and is preserved at the Leeds Industrial Museum at Armley Mills. [59]
A Third Fowler Locomotive (Works No. 21296): The third Fowler unit of the same batch worked at Cliffe alongside its sisters but did not survive into preservation.
Ruston & Hornsby Fleet – The core backbone of day-to-day operations at Cliffe was a standardized fleet of 4-wheel diesel Ruston & Hornsby 44/48 HP Locomotives: A fleet of these standard class heavy-duty narrow-gauge diesels was purchased new by Alpha Cement to manage the continuous rotation of chalk and clay tipper wagons.
Ruston & Hornsby (Works No. 186310) – A 1938-built 4-wheel 2ft-narrow-gauge diesel was recorded as part of the working plant equipment at Cliffe Cement Works.
References
B. D. Stoyel & R. W. Kinder; The Cement Railways of Kent; Oakwood Press, Headington, Oxford, 1973, 1990.
Stoyel & Kidner write “The 1970s saw the final end of a process of rationalising the cement industry which had been going on for nearly a century. By 1880 it had become inefficient and almost suicidally competitive. Each works sought its own supplies of chalk and clay, and there was not enough mineral-bearing land to go round. Also, the adoption of the rotary kiln required a considerable capital investment, this could only be recouped by large-scale production, which in turn required larger reserves of raw materials. The formation of the ‘combine’ in 1900 allowed less favoured works to be shut, with the more favoured receiving rotary kilns. It was this trend, especially in the 1920s, which caused the replacement of narrow gauge by standard gauge lines, and the concentration of the industry into fewer but larger works requiring greater tonnages of raw materials.” [1: p112]
“By the 1930s there were just a few modern works: Kent, Johnsons, Swanscombe, and Bevans in the Thames heartland of the industry, and these served through the 1950s.” [1: p112]
APCM undertook a fundamental review of its UK manufacturing. It “built new, larger, regional works based on the more economic dry process of manufacture. These were at Dunbar, Weardale, Hope, Cauldon and Plymstock.” [1: p112-113]
APCM took a different approach with the works in the Thames Estuary, deciding to replace them with a new very large works based on the wet process of cement manufacture. Alone among the earlier works, Swanscombe was retained to focus on producing special cements. [1: p113]
The new Northfleet plant was not constructed until the beginning of the 1970s and became fully operational by 1972. It was predominantly built on brownfield land which included the sites of: Bevan’s Cement Works (Northfleet); the Crown Portland Cement Plant; and the London Portland Cement Plant. It was necessary as APCM sought to centralise operations in a strive for efficiency.
This somewhat overexposed aerial image shows the immediate site of the Northfleet Cement Work in 1990. (c) Kent County Council & Getmapping.com. [5]
Construction of the then new Northfleet Works commenced in 1968. David Glasspool tells us that, “By this time, in addition to United Kingdom trade, APCM had significant exports, and to supply all interests, the cement plant was to be equipped with six kilns capable of a combined output of four million tonnes of cement a year. Approximately 20% of this was destined for overseas markets: Africa and North America in particular. To feed the works, excavation commenced in Greenhithe to produce a huge chalk pit on former farmland, alongside an existing quarry operation. This subsequently became known as “Western Quarry”: its existing easterly neighbour, which had been in use since the turn of the 20th Century, was also included within the plans. In 1969, the go-ahead was given to deepen this pit (by then known as “Eastern Quarry”) by a further 6.7 metres. This followed in the footsteps of a previous deepening exercise in 1952, which saw the pit floor lowered by 2.4 metres, and would allow new chalk supplies tobe reached in anticipation of Northfleet Works’ opening.” [2]
Cement Manufacturing Plants replaced by Northfleet Works included: Bevan’s Works (Northfleet); Cliffe Works (Hoo Peninsula); Holborough Works (Medway); Johnson’s Works (Greenhithe); Kent Works (Stone); Metropolitan Works (Essex); and Wouldham Works (Essex).
Northfleet Cement Works operated from 1970 until its final closure in 2008. Built on older, exhausted lime and ballast sites (including the former Bevan’s Works), it was once the largest cement plant in the world, featuring six massive wet-process rotary kilns. Dylan Moore tells us that, “The site was cleared in 2009-10, and the stacks were finally demolished on 28/3/2010. The western (ex-Johnsons) quarry was redeveloped in the 1990s as the Bluewater Retail Park. The eastern (ex-Swanscombe) quarry awaits redevelopment.” [3]
The Northfleet Cement Works relied on a highly advanced, bidirectional double-track rail loop and an extensive marine wharf network. This configuration made it one of the most logistically efficient industrial plants of its time, allowing it to move millions of tons of heavy materials every year without causing bottlenecks. A double-track branch line curved around the perimeter of the cement works. Trains entered the site, offloaded or loaded, and exited back onto the mainline. Dylan Moore says: “An efficient looped rail link was established, accessing the plant through tunnels first driven for quarry access, and this allowed coal and gypsum to be brought in by shuttle trains without the need to re-verse. Up to seven 1500 ton trains of cement could be shipped out per day to a set of mostly newly-constructed depots around the country.” [3]
Locomotives at New Northfleet Cement Works
Shortly after the opening of the New Northfleet Cement Works. It was decided to convert the rotary kilns to coal firing. To do this, works were put in hand to re-open part of the former LCDR West Street branch as far as the yard of the closed Southfleet and Springhead station to allow coal trains entry from the Victoria to Chatham main line at Fawkham junction. … A new road “Foxhounds Way” was also constructed to allow coal lorries access to the works via the Swanscombe – Bean road.
Coal shipments commenced from the Nottinghamshire coal field in December 1970, the usual motive power being Class 45 Peak diesel electric locomotives, a rare visitor to North Kent.
Shunting the coal wagons around the run round loop and head shunt arrangement at Southfleet was the responsibility of the sites resident diesel shunter. [9]
Once the wagons had been relieved of their loads, the coal passed along a series of conveyors where it was stored in storage silos awaiting loading into lorries for onward transit to the Cement Works. … The arrangement lasted until 1976 when the rail spur from the North Kent Line into the cement works from Northfleet station was opened. The site of the tippler closed at that time and the area appears to have reverted to nature. [9]
By 1972, the resident shunter at the Southfleet coal tippler site was a Sentinel 0-4-0 diesel-hydraulic locomotive, housed in a prefabricated engine shed added by Associated Portland Cement Manufacturers (APCM). It seems that the tippler was initially fed by a chain system which winched wagons onto the tippler. Perhaps by 1972 this had become too unreliable or time consuming? [10]
It appears that the Sentinel locomotive concerned was Works No. 10248 which was delivered new to APCM’s West Thurrock Works (Thurrock Chalk and Whiting) in 1966. It was designated as fleet No. 2 and initially painted in a lined green livery. It was part of a major dieselisation push to phase out the system’s steam fleet. It handled heavily laden rakes of internal user side-tipper wagons transporting chalk and raw material between the sprawling quarries and the processing works. It was recorded as present there in 1966. [11] Stoyel & Kidner have a different Sentinel undertaking this role, Works No. 10260. [1: p113]
No. 2 appears to have been transferred to Southfleet in 1972. It was tasked with moving British Rail main line coal wagons onto the site’s tippler tracks. It was only needed at Southfleet until 1976 when the tippler was closed. It was then returned to the West Thurrock Works and was recorded back at work there in the 1980s. [11]
From 1976 onwards no privately owned locomotives worked at the New Northfleet Works. instead, mainline rail operations inside and to the plant were handled directly by British Rail locomotives, predominantly Class 33 “Crompton” diesel-electrics, alongside occasional heavier Class 47 or Class 45 “Peak” diesel locomotives working incoming coal (such as MGR block trains from Welbeck Colliery) and gypsum services.
David Glasspool has a photographic record of a number of BR Blue locomotives working at Northfleet including:
‘Crompton’ No. D6577 is seen two-thirds of the way around the merry-go-round loop, awaiting the signal to clear before proceeding under the cement loading silos in May 1971. Movements outbound by rail started from the opening of the Works. Only inbound movements relied initially of short-distance road transport from the Southfleet Tippler and then only until 1976; [2]
‘Crompton’ No. D6577 once again, now at dusk on the same day. The train had completed the loop around the cement works complex and was now on the western side of the site, facing in the direction of the tunnel portal leading back to British Rail metals; [2]
A pair of BR Blue Class 33 diesels seen cruising over the bridge which, at that time, carried the North Kent Line over the tracks which led to Northfleet Cement Works. Heading in the westward direction, the two were hauling the Allington to Westbury empties in September 1983; [2]
A westward view of Northfleet Cement Sidings in late 1983 showing a Class 33/2 ready to proceed to the cement works with the Mountfield to Northfleet gypsum train. The formation would embark on the tight curve under the North Kent Line, which leads to the loop line of the cement works; [2]
‘Crompton’ locomotives were also recorded double-heading cement trains from Northfleet to Dunstable in the 1970s and 1980s. [12]
Other references to movements to and from Northfleet can be found on the following links:
https://www.flickr.com/photos/auchlander/5154760319 – two Class 37 locomotives, 37226 & 37255 (at Shirebrook, taking the Warsop line at Shirebrook Junction, is a train of empty MGRs from Northfleet bound for one of the Mansfield collieries. [13]
https://www.flickr.com/photos/28083135@N06/20841871129 – MGR empties returning to the midlands from Northfleet cement works are recorded at Dartford with Class 47 47327 and Class 45 45004 at the helm on 27th September 1979. The Class 47 would be removed at Cricklewood. [14]
The Cessation of Rail Services
David Glasspool tells the story of the gradual demise of Northfleet Cement Works. … “In 1978: APCM was renamed ‘’Blue Circle Industries Limited’’ (BCI). In the following year alone, worldwide sales for the company totalled £527.9 million, exports forming £69.4 million of this total. In addition to this, over 12,150 people were employed within the company, which had assets valued at £770.6 million. Despite these impressive figures, the export market was actually slowing down, and to cut costs and prevent excessive use of chalk, half the number of kilns at the Northfleet Works had been taken out of use by 1980, after a mere decade’s use.” [15]
Costs continued to rise and new energy-efficient plans saw two of the three remaining kilns were modified for ‘’semi-wet’’ operation, as opposed to their existing ‘’wet’’ processing -this reduced energy costs. [15][16]
The economic recession if the early 1990s saw Northfleet only working with just one kiln. In February 1993, “the works ceased delivering cement from its Northfleet site by rail, and arrival of chalk and coal by this means only lasted until March. The 13th March 1993 marked the final day of rail operation to the site, and both the loop line and sidings went out of use. … Economic upturn saw the re-commissioning of a second kiln at Northfleet in 1994 in response to demand, but this was not enough to bring rail operation back to the site. Two kilns gave the site an annual output of 1.2 million tonnes of cement. It was also in 1994 that excavation ceased at Western Quarry, which by this time had grown to an area of 240 acres. In the pipeline was BCI’s own concept of transforming the redundant site into a modern shopping centre. The plans had received formal government approval, but on 25th June 1994, the exhausted quarry was instead sold to Australian real estate firm ‘’Lend Lease’’. It was this company which eventually undertook the Bluewater Shopping Centre project.” [15]
After Closure of the Works
Cement production at the site did not cease until the early years of the 21st century. The neglected rail infrastructure associated with the plant was too valuable to completely abandon. In 2012, Lafarge and Network Rail spent £13.5 million to restore and upgrade the rail sidings. The site became a vital logistical hub for the Crossrail (Elizabeth Line) construction project. Freight trains transported millions of tons of excavated earth out of London’s new underground tunnels via the North Kent Line, directly into the Northfleet loop.
From there, the material was transferred via an enclosed conveyor belt onto ships at the wharf to be used for an RSPB wetland nature reserve at Wallasea Island. [2][3][4]
The area of the Northfleet Cement Works and Sidings in the 21st century. the newly reconstructed line can be seen on the right side of this OS Map extract. [5]Construction of the freight railway project at Lafarge’s site in Northfleet. Work was complete in 2012. [6]
Up to five freight trains operated from Westbourne Park on Mondays to Saturdays with up to four trains on Sundays. The first test train successfully completed the inaugural journey in May 2012 ahead of the line’s official opening in June 2012.
Danny Boyle wrote at the time:
“David Simms, Lafarge Cement’s Kent-based land and planning director, said: “Northfleet, until recently the location of the UK’s largest cement works, is a site with a long history of rail use and is key to the sustainable onward distribution of essential construction materials for the built environment. Our involvement with the Crossrail project marks the latest stage in our vision for the 104-acre Northfleet site and delivers on our commitment to sustainable regeneration.”
“Andy Mitchell, Crossrail programme director, added: “The reinstated Northfleet rail link has been successfully commissioned with the operation of the first test locomotive by GB Railfreight. This new rail link will help us minimise lorry use in central London, as well as ensuring the efficient transfer of excavated material to sites where it can be best used for environmental improvement.” [6]
It was estimated at the time that the tunnelling for Crossrail would produce around six million tonnes of material which would be excavated from constructing the 21km twin-bore tunnel. Close to 100% of the excavated material was expected to be clean, uncontaminated and reusable elsewhere. In fact, during the construction of the Crossrail (Elizabeth line) project, a total of approximately 7 million tonnes of material was excavated. Out of this total amount, about 3.4 million tonnes were specifically dug out by the eight giant tunnel boring machines working on the 42 km of new tunnels, with the remainder coming from station boxes, shafts, and caverns.
A total of 3 million tonnes (roughly 3.2 million metric tons) of the excavated material was transported to Wallasea Island.While early project estimates aimed to send up to 4.5 million tonnes, the final amount delivered to the island made up nearly half of the project’s entire 7-million-tonne excavation payload. [7][8]
References
B. D. Stoyel & R. W. Kinder; The Cement Railways of Kent; Oakwood Press, Headington, Oxford, 1973, 1990. (Page numbers are from the 2nd edition.)
In brief, ‘’wet’’ operation involves feeding the kilns with raw materials in the form of a slurry, with excess water being removed by the application of heat. However, rising energy costs had made this an expensive process, and it was instead decided to remove the water not by heat, but rather filtration. This operation became known as ‘’semi-wet’’. [15]
The featured image for this article shows an unidentified 0-4-0ST (Peckett?) in charge of a train at the Washmills associated with Bevan’s Cement Works. After 1926, these were sited to the South of Northfleet and works trains required tunnels under the High Street in order to gain access to the Works. This image was shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and is shared here with his kind permission. [10]
Knight, Bevan & Sturge Ltd. was established in 1853 between the River Thames and the centre of Northfleet. Although Thomas Bevan became sole proprietor, the firm continued to operate as Knight, Bevan & Sturge until it became one of the constituent companies of APCM in 1900. [1: p54]
Quarries were opened to the South of Northfleet and a 2ft 8.5in gauge linked them to the Works. Northfleet High Street runs along a ridge of high ground and as a result a tunnel was needed to allow access by rail between the Works and the quarries. [1: p54]
This further extract from the 25″ Ordnance Survey of 1895 shows the tunnel which took narrow-gauge engines and wagons through the ridge between the Chalk Pits and Bevan’s Works. [8]
One of the four tunnel mouths on the narrow-gauge. All of which are on the map extract above. [11]
Stoyel & Kidner list the locomotives that operated on the narrow-gauge network. [1: p60]
Three locomotives built by Neath Abbey Ironworks are recorded by Stoyel & Kidner as being in use at the Works. [1: p60]
Neath Abbey Ironworks Commenced locomotive building in 1829 to designs of Henry Taylor. The Ironworks ceased manufacturing locomotives in 1880 after having built around 35 locomotives. Henry Taylor was works manager when the firm went out of business. [5][6]
Two of the three Neath-built locomotives were built in 1874, the third was built in 1880, all had 8″ x 16″ cylinders. Stoyel & Kidner could only name the third, Comet.
The next locomotive listed is an unnamed Aveling & Porter, Works No. 952. It was a one cylinder (6″ x 10″) 4 hp 0-4-0WTG engine with 3ft wheels built in 1873.
The other narrow-gauge locomotives were all 0-4-0ST engines:
Meteor – built in 1893 by Black Hawthorn, Works No. 1085, had 8.5″ x 16″ outside cylinders and 2′ 6″ wheels.
Aerolite – built in 1894 by Black Hawthorn, Works No. 1107, had 8.5″ x 12″ outside cylinders and 2′ 6″ wheels.
Satellite – built in 1894 by Chapman & Furneaux, Works No. 1182, had 8.5″ x 16″ outside cylinders and 2′ 6″ wheels.
Planet – built in 1902 by Hudswell Clarke, Works No. 631, had 8.5″ x 16″ outside cylinders and 2′ 6″ wheels.
Rocket – built in 1906 by Hawthorn Leslie, Works No. 2649, had 8.5″ x 16″ outside cylinders and 2′ 6″ wheels.
Comet – built in 1921 by Hawthorn Leslie, Works No. 3506, had 8.5″ x 16″ outside cylinders and 2′ 6″ wheels.
Tolfa – little detail is available about this engine possibly employed by Bevan’s.
Rota – little detail is available about this engine possibly employed by Bevan’s.
Stoyel & Kidner note that all these locomotives were purchased new, two were scrapped circa 1926 when the rail network was re-gauged. Meteor, Planet and Comet were transferred to Alkerden Clay Pits in 1928. [1: p60]
The Standard Gauge Network
The Works were rebuilt in 1925 and a standard-gauge rail network replaced the narrow-gauge one. A new tunnel to the East of the narrow-gauge tunnel was constructed. The new network also connected with the Perry Street sidings of the former LCDR Gravesend West branch. [1: p60]
The Works seen from the North. This image was shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and is shared with his kind permission. [10]The Chalk Pits were sited to the South of Northfleet. Washmills were built in the quarries and trains transported chalk from the quarries via a tunnel (as shown) to Bevan’s Works. Careful inspection of the map extract will show a line leaving to the right. This line connected with the Perry Street siding of the former LCDR Gravesend West branch. [9]The full length of the line to the Perry Street siding of the former LCDR Gravesend West branch to the Southwest of Rocherville Halt. [9]
Steam navvies were put to work in the quarries and for some time the chalk was transported to the works via the Washmills shown below. Much later, the chalk was slurried to allow it to be pumped to the Works by pipeline. [1: p60]
Chalk was excavated by steam excavator (navvy) and loaded directly into waiting wagon s which would take the chalk to the washmills shown below. This image was shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and is shared with his kind permission. Gavin Phillips comments that it looks as the steam navvy could be a Ruston No.25 and with only around 8 of those being built, a rare machine by all accounts. [10]
Footage of Steam Navvies at work in one of the chalk pits along the South side of the River Thames can be seen here. [12]
The Washmill plant in the Chalk Pits with a train waiting to depart for the Works, This image was shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and is shared with his kind permission. [10]
Closer views of the Washmills. These images were shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and are shared with his kind permission. [10]
The locomotives on the standard gauge system were as follows:
No. 1 – 0-4-0ST built in 1926 by Peckett, Works No. 1701, supplied new but fitted at Northfleet with an ‘Aquastatic’ water softener. It had outside cylinders (14″ x 22″), 3′ 2.5″ wheels. It was transferred to the West Thurrock Works of BPCM in 1934. [1: p60,61]
No. 2 – 0-4-0ST built in 1926 by Peckett, Works No. 1899, supplied new but rebuilt with a rear bunker which upset its balance. It was again re uilt in 1946. It had outside cylinders (14″ x 22″), 3′ 2.5″ wheels. It went to Kent Works at Stone. [1: p60,61]
No. 3 – 0-4-0ST built in 1899 by Peckett, Works No. 759, outside cylinders (12″ x 18″), 2′ 9″ wheels. This locomotive came second-hand from Hilton’s Works, Halling and was transferred to the Crown & Quarry Works at Frindsbury in 1934. [1: p60,61]
No. 4 – 0-4-0ST built in 1900 by Peckett, Works No. 829, outside cylinders (12″ x 18″), 2′ 9″ wheels. This engine came second-hand from Lee’s Works at Halling and was scrapped in 1966. [1: p60,61]
No. 5 – 0-4-0ST built in 1902 by Peckett, Works No. 967, outside cylinders (10″ x 14″), 2′ 6.5″ wheels. This locomotive came second-hand from New Globe Works, Greenhithe in 1933 (their No. 4) and was scrapped in 1966. [1: p60,61]
No. 3 – 0-6-0ST built in 1931 by Avonside, Works No. 2001, outside cylinders (14″ x 22″), 3′ 6″ wheels. This locomotive was purchased second-hand via Messrs Cohen in 1934. Previously it worked on the Southampton Docks extension works for the joint contractors Nuttall and Mowlem. It did not last long at Bevan’s. As a six-coupled engine it was not suited to the site. It was broken up in 1951. [1: p60,61]
Duvals – 0-4-0ST built in 1899 by Bagnall, Works No. 1583, outside cylinders (10″ x 15″), 2′ 6″ wheels.. This engine came second-hand from Gray’s Chalk Quarries Co. Ltd. in 1951 and was scrapped in 1958. [1: p60,61]
An unnamed 0-4-0ST built in 1940 by Peckett, Works No. 1985, outside cylinders (14″ x 22″), 3′ 2.5″ wheels, was borrowed from Kent Works in 1945. [1: p61]
An unnamed 0-4-0ST built in 1929 by Hawthorn Leslie, Works No. 3719, outside cylinders (15″ x 22″), 3′ 5″ wheels, was borrowed from Swanscombe Works in 1955. [1: p61]
Stoyel & Kinder tell us that the railway was last used in September 1964, being replaced by conveyor-belting. The Works closed in 1970.
It is worth noting that the Works never had a “rail link for product, and used the river for most of its transportation, maintaining the best deep water jetty on the south bank. There was no main line rail link at all until 1915, when the loss of sea-borne coal supply led to a hurried connection of the plant to the Rosherville branch line.” [4]
2ft Narrow Gauge Line on the Riverside Wharf
A 2ft narrow-gauge railway served the Work’s wharves on the River Thames.
This image was shared by Andy Howdle on the Industrial Locomotive Enthusiasts Page Facebook Group on 28th August 2025 and is shared with his kind permission. [10]
Miscellaneous!
Film of a visit to Bevan’s site during demolition work. This will have been filmed after the closure of the New Northfleet cement Works. ,The remains visible seem to be historic, part of the older Bevan’s Cement Works! [13]
References
B. D. Stoyel & R. W. Kidner; The Cement Railways of Kent; Oakwood Press, Headington, Oxford, 1973, 1990, p54-62, page numbers are from the 2nd Edition.
In 1872, I. C. Johnson took over a quarry and tramway at Greenhithe which was used to provide ballast for ships returning to the Gar East without cargo. Stoyel & Kidner say that “The tramway ran from the quarry, approximately where the works was later built, under the South Eastern Railway to a pier. The Johnsons’ Works was opened in 1877; as I. C. Johnson did not purchase any locomotives, as far as is known, until 1891, he must have used those of his predecessor, but it is not known what they were, except that the gauge was presumably that used later, 3ft 9½ in.” [1: p26]
Stoyel & Kidner continue:
“The original chalk quarries were just to the south of the works, with another to the west towards Stone church, but when these were exhausted it was necessary to tunnel under the Dartford-Gravesend road to open up new ones. These finally reached as far as the A2 London-Dover road, being worked on two levels; the top level was closed in 1952 and the lower level ultimately reached a depth of 200 ft.
“The first step in modernising the works was taken in about 1903 when a rotary kiln was introduced. At about this time a line was laid to rise steeply to an exchange siding on the SE&C Railway to the west of the works. The Company joined BPCM in 1911. Then in about 1926 the works was closed for a time to enable it to be completely modernised and in the process of this reorganization standard gauge track was laid, as a temporary measure some of the line being dual gauge with three rails until the narrow gauge system was finally abandoned in about 1927. In 1928, one of the two lines running from the works to the pier was electrified on the overhead system, worked by motored bogie hopper wagons. These worked on 250V overhead supply, and carried a 25-ton load at 7 mph. They were built by English Electric (738-40) in 1928.
“The modernised works included eight new concrete silos 96 ft high, and a new concrete packing shed on the jetty, which had an extension built out into the river so that larger ships could berth there. The three hopper wagons (two in use, one spare) acted as a link between silo and packing shed, running under the former to load up, and unloading at the jetty by means of compressed air and screw conveyors. They were remarkably silent-running.” [1: p26]
The Kent Works deep-water wharf and works in on the left; to the right is Johnson’s Works wharf, with the works itself south of the railway. Note the line along the water’s edge which joined the two systems, and was the reason why Kent Works’ engines were frequently noted inside Johnson’s Works. [1: p21]I. C. Johnson’s Portland Cement Works sit at the centre of this extract from the 6″ Ordnance Survey of 1907, published in 1910. One significant chalk pit sits t the West of the Works (at the left of this map extract). The company’s wharf on the River Thames is shown in an enlarged extract from the OS map below. Also shown below is the tunnel which connected the Works to the Chalk Pit to the South of London Road. [3]
Johnson’s Wharf and Dolphin’s Wharf both seem to serve I. C. Johnson’s Works. A bridge carries the North Kent main line over the lines connecting the wharves with Johnson’s Works. [3]
The site of Johnson’s Wharf in the 21st century (as shown on the ESRI satellite imagery provided by the National Library of Scotland (NLS)). The site is now used by Heidelberg Materials Aggregates – Greenhithe. [4]
The bridge which carried the North Kent main line over Johnson’s industrial lines is still in position and continues to carry the main line in the 21st century! [Google Earth 3-D view, August 2026]
This second enlarged extract shows the tunnel passing under London Road (A2). [3]
The approximate line of the tunnel on the map extract is shown on this satellite image by the read line. [6]
The Chalk Pits were extended further to the South as time went by. This extract is from the 6″ Ordnance Survey of 1938 to 1940 which was published in 1950.Modern development has substantially replaced the old chalk pit workings. [7]
Clay first came by barge down the Medway, then from various local sites. Some was dredged from the Thames, some came from a BCPM claypit at Bean, some from the APCM pits at Alkerden.
Johnson’s closed in 1970.
Locomotives
Locomotives on the early narrow-gauge railway (3′ 9.5″), all new unless noted otherwise: [1: p30]
Elephant – an 0-4-0ST – no details available.
Cement – an 0-4-0T built in 1891 by Bagnall, Works No. 1344, outside cylinders (9″ x 14″), 2′ 9.5″ wheels.
Samson – an 0-4-0T built in 1892 by Bagnall, Works No. 1417, outside cylinders (9″ x 14″), 2′ 7″
Clinker – 0-4-0ST built in 1897 Falcon, Works No. 249, outside cylinders (?? x ??), ???? wheels.
Mammoth – 0-4-0ST built in 1899 by Bagnall, Works No. 1582, outside cylinders (10″ x 15″), 2′ 9.25″ wheels.
Leviathan – 0-4-0ST built in 1900 by Bagnall, Works No. 1609, outside cylinders (10″ x 15″), 2′ 9.25″ wheels.
(Not named) – 0-4-0WTG built in 1900 by Aveling & Porter, Works No. 4537, compound cylinders (8.5″ x 14.125″ x 14″), 3′ 6″ wheels. Transferred from the APCM works at Cliffe in 1920.
Goliath – 0-4-0ST built in 1921 by Barclay, Works No. 1741, outside cylinders (12″ x 20″), ???? wheels.
New Elephant – 0-4-0ST built in 1924 by Bagnall, Works No. 2258, outside cylinders (10″ x 15″), 2′ 9.25″ wheels.
In 1927, with standard-gauge track now in place, new locomotives were required: [1: p30]
Stone – 0-4-0ST built in 1927 by Peckett, Works No. 1740, outside cylinders (14″ x 22″), 3′ 2.5″ wheels.
Darenth – 0-4-0ST built in 1927 by Peckett, Works No. 1741, outside cylinders (14″ x 22″), 3′ 2.5″ wheels.
Greenhithe – 0-4-0ST built in 1927 by Peckett, Works No. 1742, outside cylinders (14″ x 22″), 3′ 2.5″ wheels.
Southfleet – 0-4-0ST built in 1928 by Peckett, Works No. 1746, outside cylinders (14″ x 22″), 3′ 2.5″ wheels.
Longfield – 0-4-0ST built in 1928 by Peckett, Works No. 1747, outside cylinders (14″ x 22″), 3′ 2.5″ wheels.
The first three were supplied with low cabs and boiler mountings, so as to clear the tunnels, being classified as ‘Type W 6 Special’ by Peckett. The last two Pecketts were not cut down when delivered. They were however rebuilt at the works many years later to a similarly reduced height.
“In addition to these new locomotives the narrow gauge locomotives Goliath and New Elephant were rebuilt to 4ft 8½ in. gauge in 1927 by the makers and by the cement works respectively, and the following were transferred from other works:” [1: p30]
New Globe – 0-4-0ST, built in 1901 by Peckett, Works No. 889, outside cylinders (14″ x 22″) and 2′ 6.5″ wheels, from Globe Whiting Co., Greenhithe in 1929.
Globe No. 3 – 0-4-0ST, built in 1901 by Peckett, Works No. 925, outside cylinders (8″ x 12″) and 2′ 3″ wheels, from Globe Whiting Co., Greenhithe in 1930.
Thames – 0-4-0ST, built in 1899 by Bagnall, Works No. 1588, Outside cylinders (12″ x 18″) and 3′ 0.5″ wheels, from Trechmann & Weekes Works, Halling in 1935 (regauged from 4 ft 2 in.)
Stoyel & Kidner tell us that, “Johnsons clay-pit at Bean was worked by two Simplex petrol engines and two Planet diesels; later by five Rustons diesels (175137, 182147, 194769, 195850/1); however they were often switched to other works and not always on site.” [1: p30]
“Of the narrow gauge engines, Elephant and Samson had disappeared by 1932, the Aveling was scrapped in 1934 and Clinker, Mammoth and Leviathan a year or two afterwards. Cement was not scrapped until after the war, although it had been derelict since 1927.” [1: p30,36]
Stoyel & Kidner tell us that “The standard gauge locomotives gradually became redundant during the post-war period until completely superseded by diesel locomotives. They [were] accordingly … hired or loaned out to other works, or otherwise disposed of, as follows:” [1: p36]
Stone: Transferred to Frindsbury Works in 1962.
Darenth: Hired to Purfleet Wharf & Saw Mills Ltd in 1940-1945. Loaned to Kent Works, Stone, in 1947. Scrapped in 1963.
Greenhithe: Hired to Samuel Williams & Son Ltd, Dagenham Dock, in 1945. Transferred to Hessle Quarry, Yorkshire, in 1962.
Southfleet: Transferred to Frindsbury Works in 1960.
Longfield: Transferred to Holborough Works in 1960.
Goliath: Transferred to Grays Works in 1960.
New Elephant: Scrapped in 1960.
New Globe: Scrapped in 1960.
Globe No. 3: Scrapped in 1948.
Thames: Disappeared some time after the last war, no doubt scrapped: the cab and saddle tank were still visible in March 1952.
Additionally, Stoyel & Kidner tell us that one other locomotive spent time at Johnson’s in 1942 having come from the APCM chalk pit at Highsted, before being loaned to their Dunstable Works. In 1946, it returned to Greenhithe and in 1947 was returned to Highsted. This locomotive was:
Tay: an 0-4-0ST built in 1924 by Barclay, Works No. 1828, outside cylinders (12″ x 20″) and with 3′ 2″ wheels. [1: p36]
References
B. D. Stoyel & R. W. Kinder; The Cement Railways of Kent; Oakwood Press, Headington, Oxford, 1973, 1990.
Andrew Neale; Industrial Railways of the South-East; Middleton Press, Midhurst, West Sussex, 1984.
Kent Works was built between 1919 and 1922. It had an extensive 4ft 3in railway “which ran inland to large chalk pits, connected with the lines of the Stone Court Chalk and Ballast Co. and … to Johnson’s Works next door.” [1: p4]
According to Stoyel & Kidner the Kent Works were built between 1919 and 1922 by contractors P. & W. Anderson for the Kent Portland Cement Co. Ltd, “but only a year after its completion the company was acquired by APCM. It is situated on the Thames foreshore about ½ mile north-east of Stone Crossing Halt between the railway (and road) and the river, where there was a jetty. There were extensive store areas and sidings between the main works and the SR exchange siding immediately west of Stone Crossing Halt.” [3: p14]
“It is probable that chalk was originally taken from the pit south of Cotton Lane; however by 1930 a large pit east of this, south of Elizabeth Street, was being worked. … This was progressively opened out down to London Road, and finally a tunnel under that road reached the southernmost pit.” [3: p14]
“The method of working a face was to lay a double track approaching it, singling at the actual face. As the engine hauled away the full wagons, the empty train would be propelled under the excavator, thus losing no time. The six-coupled engines could take some 16 wagons, loaded to about 3-4 yards each; though with a split-level face the gradient to the top level was sometimes severe, it was always in favour of the loaded trains.” [3: p14]
“In 1963, a cutting was built to connect the pit with that of Johnson’s Branch: there had always been a certain amount of interchange between the two works by a line along the bank of the river.” [3: p14]
Apparently “there was a well-built locomotive shed on the western edge of the works area.” [3: p19]
Kent Portland Cement Works as shown on the 6″ Ordnance Survey of 1938, published in 1946. Note the location of Charles Street to the North of the Main Line Railway. [8]Approximately the same area as it appears on 21st century satellite imagery. There is no remaining sign of the Kent Works. Charles Street still sits where it did during WW2. [Google Maps, August 2026]
Looking East along Charles Street from close to the roundabout junction with Crossways Boulevard. [Google Streetview, May 2018]
Looking East again along the extension to Charles Street to the East of the modern green open space. [Google Streetview, May 2018]
Locomotives
Stoyel & Kidner tell us that the company purchased its first locomotives second-hand from the contractor that built the works. These were:
Stone 0-6-0ST Hudswell Clarke, Works No. 298, built in 1888, it had inside cylinders (12″ x 18″) and 3′ 0″ wheels.
Toronto 0-4-0ST Hudswell Clarke, Works No. 571, built in 1900, it had outside cylinders (10″ x 16″) and 2′ 9″ wheels.
It is the end of the line for these two different Hudswell Clarke 0-4-0ST locomotives. Note the different cab roof details. On the left of this image is ‘Toronto’ HC Works No.5710f 1900 and on the right is ‘Stone’ HC Works No. 298 of 1888, (c) Public Domain – photographer F. Jones. [25: photo No. 20]
Arthur 0-6-0ST Manning Wardle, Works No. 1601, built in 1903, it had inside cylinders (12″ x 18″) and 3′ 0″ wheels. Arthur continued in use at the works until 1967 [2: photo No. 23] and has survived into preservation, residing at The Middleton Railway in Leeds, although under a different name.
Apex 0-6-0ST Manning Wardle, Works No. 1657, built in 1905, it had inside cylinders (12″ x 18″) and 3′ 0″ wheels. [3: p19] ‘Apex’ was not as fortunate as ‘Arthur’, it only survived in use until 1960 and was scrapped in that year.
They were soon supplemented by other second-hand locomotives transferred from other works owned by APCM.
Hilton 0-4-0ST Peckett, Works No. 633, built in 1896, it had outside cylinders (12″ x 18″) and 2′ 9″ wheels. ‘Hilton’ came from Hilton Works, Halling. I have not been able to find a photograph of No. 633, Hilton. However, Peckett Works No.614 ‘Bear’ was also built in1896, and was of the same W4 class as Works No. 633, with the characteristic open-backed cab.
No. 614 ‘Bear’ at Sittingbourne & Kemsley Light Railway 10th October 2023, The locomotives was moved to the Buckinghamshire Railway Centre, in March 2024 for initial cosmetic repair, followed, in due course as time and resources permit, by restoration to operating condition, (c) photographer not known. [7]
Elephant 0-4-0ST Brush (Flacon/Henry Hughes), Works No. 287, built in 1899, it had outside cylinders (10′ x 18″) and 3′ 0″ wheels. This came from Tolhurst Works, Northfleet.
Clarence – an 0-4-0ST Andrew Barclay & Sons, Works No. ???, built in ????, had outside cylinders (10″ x 18″) and 3′ 3″ wheels. This came from Hilton Works, Grays. [3: p19]
Wouldham – Hatherill & Hatherill tell us that ‘Wouldham’, an 0-4-0ST Andrew Barclay & Sons, Works No. 1679 arrived at Kent Works in 1920. They provide the works drawing below which indicates that the cylinder size matches that of ‘Clarence’. It is possible that ‘Wouldham’ was renamed ‘Clarence’ on arrival at Kent Works.
Stoyel & Kidner tell us that Kent Cement Works rebuilt Elephant and Apex in 1927 and Clarence in 1928. Stone was rebuilt by its makers in 1909.
Two new locomotives were the next to be purchased:
0-4-0ST Peckett, Works No. 1804, built 1935 (outside cylinders, 14″ x 22″ and 3′ 2½” wheels)
0-4-0ST Robert Stephenson & Hawthorns, Works No. 7336, built 1947 (outside cylinders, 14″ x 22″ and 3′ 8″ wheels)
After the war another 0-4-0ST Peckett was acquired second-hand from the Woolwich Arsenal. It was Works No. 1985, built in 1940 (outside cylinders 14″ x 20″).
Cab roofs of the second-hand locomotives had to be adapted after arrival to suit the tunnels on site.
Stoyel & Kidner tell us that “Stone and Toronto were scrapped in 1950 and in 1953 running numbers were allotted to the remaining locomotives as follows:
And finally, No. 2 at Northfleet Works was subsequently transferred to Stone, it became No. 9, it was an 0-4-0ST Peckett, Works No. 1702, built in 1926 (outside cylinders 14″ x 22″ and 3′ 2″. [3: p19]
Peckett & Sons Ltd. No. 1985 of 1940 was acquired after WW2 from Woolwich Arsenal and became Kent Works No. 7 Although a standard 0-4-0ST Peckett design (Class W6) with 14″ cylinders. Its appearance was changed by a lowering of the cab roof at the eaves to give clearance in the tunnels.
Robert Stephenson & Hawthorns (RSH) No. 7336 of 1947 became Kent Works Locomotive No. 8. This design of 16″ cylinder 0-4-0ST locomotives was used at several of the cement works in Kent. Like the Peckett design, these engines needed the eaves of the cab roof lowering to give clearance in the Works’ tunnels.
References
A & G Hatherill; Narrow Gauge & Industrial Album; RCL Publications, Gaendolbenmaen, Gwynedd, 2004.
Andrew Neale/Chalk Pits Museum; Industrial Railways of the South-East; Middleton Press, 1984.
B. D. Stoyel & R. W. Kinder; The Cement Railways of Kent; Oakwood Press, Headington, Oxford, 1973, 1990.
Possibly as early as 1825, an extensive horse-drawn tramway network served the works.
The tramway was laid to 3ft 5.5in. “The gauge was measured to the outside of the railheads as the wheels had flanges outside of the rails. … They were the earliest railways in the area. … It is said that outside flanges were used so that the space between the rails could be built up into a firm level path for the horses. Fallen lumps of chalk could then be easily kicked clear of the rails.” [1: p4]
“The works lay to the north of the London Road and the tramway ran due north for 1000 yards to Bell Wharf. There was a whiting works to the west of the main works with a tramway to the pits near the cricket ground. The main pits were between the London Road and the South Eastern Railway. Some time before 1898 the tramway burrowed under the South Eastern Railway in a tunnel at Craylands and pits were opened south of the railway later extending for a considerable distance. There was a transhipment siding on the South Eastern Railway at Craylands during the time of the narrow gauge.” [30: p38,42]
“Steam locomotives were introduced in 1875, built by a variety of builders. “There were engines by Lewin of Poole, HE Taylor of Chester, Kilmarnock Engineering Co. and … Aveling and Porter of Rochester. By 1927, these charming workhorses were becoming increasingly difficult to maintain and so, with the need to increase production, the railway was re-laid to standard gauge and new locomotives purchased.” [1: p4]
Initially the industry was made up of a series of independent companies. These companies joined in 1900 to form ‘The Associated Portland Cement Manufacturers’ (APCM), often referred to within the industry as ‘The Combine’. After 1900 the various works continued to be known by their original names.
The modernisation of the railways at Swanscombe Works was completed by 1929. … The Works shifted to a busy, efficient standard-gauge system connecting the chalk pits, main plant, river Thames jetty, and British Rail interchange.
“When the standard gauge line was built a single track ran down from the exchange sidings on a steep and curving route to the works. The standard gauge ‘main line’ ran through the tunnel under Craylands, then turned more westerly than the old line, and passed under a footbridge across old workings, through a tunnel under a lane, then another tunnel under Alkerden Lane, and into a very large pit running almost down to Watling Street, a distance of 14 miles from the Works.” [30: p42]
The Works were among the most important cement production facilities in the country. Extensive railway infrastructure was required to handle raw materials and finished cement, resulting in a complex network of sidings, exchange lines, and industrial locomotives. Rail traffic included limestone and chalk movements, internal works shunting, and outward cement trains connecting with the wider British Rail network. By the late 1960s and early 1970s, the site reflected wider changes across the UK rail system. [11]
A sketch of the area around Swanscombe Works. The pier on the Thames, the Works and the quarries were on a North-South axis. This sketch is an extract from a broader sketch of the various Cement Works on the South side of the River Thames. [30: p10]
The series of map extracts and photographs below illustrate the development of the Works over the years.
Map of Works in 1864
The First Edition OS 1:2500 County Series Kent X.1 map surveyed 1864 (British Library), modified to National grid format. The plant in 1864 was in course of rapid expansion, still using the wet process static kilns originated by Frost. Chalk quarrying, initially north of the road, had spread to the area between the road and the railway, connected by a 4 m wide tunnel under the road – the first of five eventually dug. [
Map of Works in 1895
This pair of Ordnance Survey Map extracts are taken from the 25″ Ordnance Survey of 1895, published in 1897. [7]
These three 6″ Ordnance Survey map extracts of 1938-1940 and published in 1950-1951 belong together. The top two overlap marginally North to South. [5] The third extract sits alongside the second – to its left. It comes from a different OS Sheet and shows the Works line extending to Chalk Pits near Knockhall and Alkerden Manor Farm. [6]
Swanscombe Cement Works began operations in 1825, when James Frost commenced making his “British Cement” using wet process bottle kilns. The plant was acquired by Francis and White in 1833 and made the same product. The partnership was dissolved in 1836 and John Bazley White and Sons commenced as a business in 1837, making both Roman and Frost’s cements at the Swanscombe site. [8]
Map of the Railway Network in 1965
Note that the Northpoint for this plan is turned through about 120 degrees. The Thames jetty is off the left of the plan. The chalk Pit Workings are off to the bottom-right. [12]
In 1965, the Works had seven 0−4−0STs to work the considerable traffic – six built by Hawthorn Leslie (four in 1928, one in 1929 and one in 1935) and the last by Robert Stephenson & Hawthorns in 1948. All seven were painted green with the running number on each side of the tank. There were no diesels. One was tried but it could not manage the poor track and was continually “sitting down”. There is no prospect of having any until money can be spared for relaying several miles of track. [12] A number of other locomotives were used at different times after 1929.
The five identical Hawthorn Leslie 0-4-0ST engines were delivered in 1928, followed by a sixth in 1935. They weighed 25 tons, featured 16in x 24in outside cylinders, and had a tractive effort of 21,425 lbf. [13]
The works can be divided into three areas. The first two are old chalkpits, dug each side of the main road, while the third contains the line to the workings. The first area is bisected by a private road with the cement works proper on one side. On the other side is the single road engine shed and works, and also an awning over one track where engines stand when not in use. A single line runs past the works, and across the marshy countryside to the jetty on the river Thames. [12]
“Another line runs across the road and winds its way around the main works until entering a tunnel under the main road. This brings it to the second old pit, where are situated two unloading tips for arriving trains. As can be seen from the map, a connection to British Railways struggles up and round the side of the pit. (Sand all over the rails shows the severity of the climb.) On the opposite side of the pit, another single line dips downwards into a tunnel under BR, a road and the connecting line, and emerges into a long, deep and wide cutting. There are two passing loops on the way to the workings, of which one has watering facilities, and another tunnel, and a high footbridge.” [12]
Chris Down, writing in 1965, continues:
“At the middle pit, an arriving train runs above one of the two tips, and backs down on to the tip. When the end wagon is on the tip, the wagons are braked, and the locomotive is uncoupled so that it can go up to the end of the line to obtain coal and water.
“The tips are similar to mechanical coaling plants on B.R. and deal with one wagon at a time. As each wagon is unloaded, it runs along the siding by gravity, until the train is reformed at the other end of the loop. The locomotive then comes back and couples onto the same end as before. The next train brings the single line tablet which is hung on a hook on a post. The first train collects the tablet and then goes down to the workings, the locomotive propelling the wagons.
“I spent some time around the footbridge, photographing the trains which passed at frequent intervals. The maximum speed was about 20m.p.h., but trains lurched terribly, due to the poor track. When the track deteriorates so much as to necessitate its replacement, diesels will doubtless be purchased. From the opinion of many of the men to whom I spoke, however, steam should retain its supremacy for some time to come.” [12]
Satellite Image the Area of the Works of 2026
“Swanscombe cement works operated for nearly 165 years, one of the longest-lived cement works in the world and, for many decades, … one of the largest. For a hundred years from about 1826 until 1929 it employed a unique narrow gauge railway using outside-flanged wheels, with over thirty steam locomotives, many also unique. When modernised in the 1927-29 period, its new standard gauge railway was one of the busiest and most efficient in the industry.” [9]
Details of locomotives employed at the Works can be found below.
Production at Swanscombe Works measured in tonnes per year. [8]
Comparing 1915/1916 to the 21st century
A few images follow which compare locations on the Swanscombe Works network with modern satellite imagery. The plans and satellite images are supplemented, where available, with photographs from close to ground level.
Bell Wharf at the North end of the company’s rail network, as it appears on the 6″ Ordnance Survey of 1915/1916 published in 1923. [33]
The Wharf as it appears on the ESRI satellite imagery provided by the national Library of Scotland (NLS) [34]
The approach to the Jetty along the line of the old railway. This view looks North towards the jetty. [Google Streetview, August 2025]
The jetty seen from the South. [Google Streetview, August 2025]
Looking South across the marshes from the jetty towards the location of Swanscombe Works. [Google Streetview, August 2025]
The Cement Works in 1915/1916. A road can bee seen leaving London Road at the bottom-left of this map extract and running towards Manor Way Farm through the centre of the site. [33]
In the 21st century, the outline of the Cement Works site is still visible. A variety of primarily transport related companies use the site. Manor Way now runs from the bottom-right across the centre of the old cement works siteand the area is known as Manor Way Business Park. [34]
Looking Northeast along Manor Way in the 21st century. The majority of buildings which were present when the Cement Works was in operation have been removed. [Google Streetview, October 2024]
Narrow Gauge Locomotives before 1929
Although records are sketchy, Stoyel and Kidner give details of nearly 30 narrow-gauge locomotives which served at Swanscombe, all of which had wheels with outside flanges. These included:
Aveling & Porter supplied a total of eight 3ft 5.5in, outside-gauge, geared tramway engines to Swanscombe Works. These were all scrapped by 1929 after the standard-gauge works lines were built.
S. Lewin of Poole – Only a small number of locomotives were built by this company, including: an 0-4-0 locomotive of 1875, for the 1 ft 10 in (559 mm) gauge Cornish Hush Mine, Howden Burn; 0-4-0 Ant and Bee, for the 20 in (508 mm) gauge Great Laxey Mine Railway, Isle of Man; an 0-4-0ST for Seaham Harbour, County Durham; an 0-4-0 steam tram engine for Guernsey Railway; an 0-4-0 with rear tank, 3 ft 5 1⁄2 in (1,055 mm) gauge, outside flanged, (photographed below at) Swanscombe Cement Works; and an 0-4-0 Tiny, a 3 ft 9 in (1,143 mm) gauge loco for the Fayle’s Tramway on the Isle of Purbeck. [23][24]
S. Lewin only made a few locomotives. Erith “had the eccentrics on the front axle and the valves were on top of the steeply-inclined cylinders, the spindles being actuated by Stephenson link motion. Erith was rebuilt at Swanscombe Works in 1920 with the help of fitters from the Dorset Iron Foundry.” [30: p45]
De Winton supplied one vertical-bolier 0-4-0WT locomotive, Revolution, it had two 6″ x 10″ cylinders and 1ft 7in diameter wheels.
It is possible that Revolution “came second-hand in about 1890 and possibly from the Bute Works Supply Co. Cardiff, who were advertising a similar locomotive for sale in 1893.” [30: p45]
H. E. Taylor of Chester supplied six 0-4-0 side tank locomotives to Swanscombe Works between 1877 and 1882.
Stoyel & Kidner provide details of these locomotives:
Swanscombe, 0-4-0ST, 1879, outside cylinders other details not known.
Iron Horse, 0-4-0ST, 1882, outside cylinders (9.5″ x 18″), 2ft 6in wheels.
Dead Horse, 0-4-0ST, 1882, outside cylinders other details not known.
Millbank, 0-4-0ST, 1879, outside cylinders other details not known.
Liverpool, 0-4-0ST, 1879, outside cylinders other details not known.
Chester, 0-4-0ST, 1877, outside cylinders other details not known.
William Wilkinson & Co. built around sixty locomotives. Wilkinson’s also contracted out the manufacture of tram locomotives to Beyer, Peacock and Co, Black, Hawthorn and Co and Thomas Green and Son. Altogether 207 engines were built to Wilkinson’s patent. The Plymouth & Devonport Tramways steam locomotives were assembled at Wilkinson’s works in Wigan, the vertical boiler in each of these locomotives was made by the Steel Company of Scotland. Small bore cylinders acted upon a crankshaft that was in turn connected to the four, coupled wheels by means of cog-wheel gears. The axles, wheels and nearly all the working parts of the engine were made of Sieman-Martin’s best quality steel and all the brass workings were of phosphor bronze. The exhaust steam was superheated in the firebox before escaping to the atmosphere through the chimney. The fuel was coke and the emission of smoke was described as ‘scarcely perceptible’. The Plymouth locomotives were apparently from Wilkinson’s own works. They cost between £600 each for the non-condensing version and £1,100 for those fitted with the condensing apparatus. [26]
A number of the Wilkinson steam trams purchased by the Plymouth & Devonport Tramways for their abortive experiment with steam trams were bought by the Swanscombe Works in the late 1880s/early 1890s. [25]
A typical Wilkinson’s Steam Tram – this one was used on the Wigan network close to Wilkinson’s Works. It was built in 1886. These engines must have been an unusual sight working on an industrial railway! [27]
Wilkinson also supplied a single vertical-boiler locomotive to Swanscombe Works. It was built in 1884.
Kilmarnock Engineering Co. supplied five 0-4-0ST 3ft 5.5in outside-gauge locomotives to Swanscombe Works in 1920 and 1925. Kilmarnock Engineering Co. were not prolific engine builders. These five were some of a very few locomotives built by the Company.
These sturdy 0-4-0ST locomotives undertook most of the chalk haulage for Swanscombe Works in the 1920s. When the railway was modernised and the gauge changed the locomotives were scrapped. [1: p6]‘Hustler’ was one of this batch of locomotives from Kilmarnock Engineering Co., (c) Public Domain. (Kenn Nunn Collection/LCGB). [25: photo No. 26]
J. B. White& Bros, owners of the Swanscombe works, appear to have constructed at least one locomotive in use on their own site, Gravesend, another 0-4-0WT. It is also possible that a number of other locomotives used on the site were rebuilt there at various times. [30: p45]
Bagnall – one locomotive, Rede, an 0-4-0ST built in 1894, was built by Bagnall (Works No. 1413) and came second-hand in 1921. [30: p45]
Hudswell Clarke – one locomotive, Spry, another 0-4-0ST, was built by Hudswell Clarke and arrived at Swanscombe in 1923. [30: p45]
Stoyel & Kidner tell us that “on a visit to the works in December 1929, 12 narrow gauge locomotives were seen on a length of track awaiting scrapping. The old 3-road engine shed was rebuilt as a two-road standard gauge shed. … On the modernisation of the railway system in 1929 all the remaining narrow gauge locomotives were scrapped that year or in 1930, and it is thought that very few of them had been scrapped at an earlier date, although Plymouth and Devonport are said to have been broken up in 1922, and Swanscombe by 1920. The second-hand engines would have had their gauge altered on arrival.” [30: p45]
The narrow gauge wooden tipper wagons, “were shunted in 1929 into the passing loops half way down the tramway to the river, and remained there for many years. There were also a few left in an old pit south of Ingress Gardens.” [30: p45]
Standard Gauge Locomotives after 1929
“When preparations were made in 1928 for replacing the narrow gauge system by one laid to the 4ft 8½ in. gauge, an order was placed for a series of powerful new locomotives for the purpose. Pending their delivery three old locomotives were transferred from other works but they were usually employed two at a time in removing the overburden prior to quarrying, on track which had no physical connection with the remainder of the system.” [30: p45]
Those early standard-gauge arrivals were from two manufacturers:
Falcon – Henry Hughes and Company was based at Falcon Works. The firm experienced financial difficulties in the late 1870s/early 1880s. It was restructured as the Falcon Railway Plant Works in 1883 under the control of Norman Scott Russell. [31]
The factory remained busy with both railway and tramway locomotives and rolling stock. Among these were tank locomotives for Ireland, Spain and the Azores. Some were subcontracts from other firms, such as Kerr, Stuart and Co, at that time in Glasgow. [32]
The two Falcon locomotives came to Swanscombe second-hand, they were Works Nos 120 and 150 and were named Wolf and Delta. Delta was one of a number originally supplied to Gibbs Works, Essex. It had a dropped cab for passage through low tunnels. [30: p43, 45]
Falcon also provided a later second-hand arrival, Lion, (Works No. 205?) which was transferred from Stone Court in 1946. [30: p41, 45]
Manning Wardle – Guernsey, a 0-4-0ST, Works No. 1241 of 1892 came second-hand to Swanscombe at the end of the 1920s.
Hawthorn Leslie supplied five identical standard-gauge 0-4-0ST locomotives to Swanscombe Works in 1928. [1: p6] These locomotives were constructed with two outside cylinders of 16in x 24in, 3ft 3in diameter driving wheels and a weight of 25 tons and a tractive effort of 21.425 lbf. [13] A single further engine (No. 6) was supplied in 1935.
No. 1 was Hawthorn Leslie Works No. 3715. [13]
No. 2 was Hawthorn Leslie Works No. 3716. [16]
No. 3 was Hawthorn Leslie Works No. 3717. [15]
No. 4 was Hawthorn Leslie Works No. 3718. [14]
No. 5 was Hawthorn Leslie Works No. 3719. [17][25]
No. 6 was Hawthorn Leslie Works No. 3860. [18]
No. 5 was one of the fleet of standard-gauge Hawthorn Leslie Locomotives. It is seen here working the exchange sidings at Swanscombe, (c) Public Domain, (Andrew Neale Collection). [25: photo No. 27]
This image is embedded here directly from the Middleton Railway Website, it shows Hawthorn-Leslie No. 3860 Swanscombe ‘No.6’ which was gifted to the Middleton Railway in 1971 once the APCM turned away from steam- to diesel-power. [19]
Chapman & Furneaux – Kappa, another 0-4-0ST, built by Chapman & Furneaux (successors to Black, Hawthorn & Co) Works No. 1164 (of 1898) arrived at Swanscombe in the 1930s. [30: p45]
Robert Stephenson & Hawthorns supplied one slightly larger standard-gauge locomotive to Swanscombe Works – 0-4-0ST No. 7, RSH No. 7405 of 1948. [1: p6]
I have just been given a small pamphlet style paperback book compiled and published in June 1920 by W.G. Tilling.
The featured image for this article comes from the frontispiece of Tilling’s book. It is a picture of the Class L 4-6-4T superheated large tank locomotive ‘Charles C. Macrae’. [1]
Tilling’s forward to the book states:
“For many years particulars of the locomotives running on our railway lines were difficult to obtain, but the Great Western Railway Company a year or two back broke through the usual official reticence by publishing a list of all their named engines. This was doubtless done to interest the general public in that railway, and I believe has proved a successful advertisement.
“Unofficial lists have also been published of the engines of the London and North Western Railway and a few of the smaller lines. Following these examples, I am prompted to deal with the locomotives of the London Brighton and South Coast Railway. This Company’s engines have probably had a larger circle of admirers than those of any other railway of similar size. The influence on locomotive design of the genius of the late William Stroudley (locomotive superintendent from 1871 until 1889) has appealed to the technical mind; whilst many, unconnected with railways, first attracted in their boyhood to this Company’s locomotives by their bright yellow livery and the fact that nearly all bore distinctive names, continue to take a keen interest in them long after their school days; and even now, when the engines are painted in less attractive colours, and the Stroudley classes are passing to the scrapheap, I feel sure there is a sufficiently large number interested to warrant the publication of this little book, and moreover, I am sanguine enough to hope that it may be of some use to many in the Company’s service.” [1: p3]
There were six hundred and six locomotives on the company’s roster in 25 different classes at the time that Tilling was writing these were:
The locomotives of the London, Brighton & South Coast Railway in 1920. [1: p4]
There were 172 tender engines and 434 tank engines (all of the side tank variety). In addition, Tilling writes, there were four tank engines attached to the Locomotive Department for shunting in the Locomotive Works and the three principal steam sheds.
Class B1 0-4-2 Express Passenger Locomotive. [1: facing p4]
Tilling continues:
“All engines are fitted with the Westinghouse brake, whilst a few running in conjunction with ‘foreign’ lines have the automatic vacuum brake in addition. These latter engines proved extremely useful during the war in dealing with the large amount of other Companies’ rolling stock that passed over the Brighton system.
“The passenger engines are painted umber colour lined out with two yellow lines with the Company’s arms in colours on the splashers and gold lettering, whilst the goods engines are painted black with red lining and gold lettering.” [1: p5]
There were seventeen Locomotive Depots on the system. …
Locomotive Depots of the LB&SCR. [1: p5]Class B4 4-4-0 Express Passenger Locomotive. [1: facing p5]Class A1x 0-6-0T Rail Motor Engine. [1: facing p9]
Tilling describes the various classes of locomotive:
“CLASS A: are small six-coupled side tanks with 4-ft. wheels, usually known as ‘Terriers’. They were designed [in 1872] years ago for working passenger trains on the South London and East London lines. Fifty engines were built in all, originally Nos. 35-84; several have been sold to other Companies, others scrapped, whilst the remainder are now used on rail motor work, excepting Nos. 642 and 682, which are yard engines at Battersea shed and Brighton works respectively.
“During the war several were taken over by the Government for working on light military lines in England and Scotland, for which their light weight only 27 tons 10 cwt. in working order made them very suitable. Although the oldest class now running on the line they are still very useful little engines, and several have recently been rebuilt with new boilers, etc., and are now classed A1x.
“CLASS B: include Stroudley’s and R. J. Billinton’s four-coupled passenger express engines, subdivided into B1 (‘Gladstones’), B2 (‘Grasshoppers’), B3 (one engine only-213 ‘Bessemer’) and B4 (‘Scotchmen’). The B2 and B3 engines are now all rebuilt with larger boilers of the C3 type and classed B2x.
The Bl’s are front-coupled non-bogie engines, and they for many years worked the bulk of the express traffic between London and Brighton until superseded by the B4’s in 1901. The majority of the survivors are now employed on work usually done by tank engines, and several are now stationed at Tunbridge Wells shed. ‘Gladstone’ itself, after thirty-seven years, is still in evidence working slow trains between Brighton and the Metropolis. No. 172 is the only one of the class not fitted with Stroudley’s pumps and arrangement for utilising part of the exhaust steam to heat the water in the tender.
“The B2’s were the first express engines with a leading bogie to run on the LBS&CR. They were built to supersede the old single wheelers on the London-Portsmouth road with its many curves, and the first batch, Nos. 314-324, were all sent to Fratton shed, except No. 323, which worked from St. Leonards.
“No. 206 was badly damaged in the Wivelsfield accident of December, 1899, and also has the distinction of having worked the first sixty-minute Pullman train from Victoria to Brighton on 2nd October 1898.
“Several of the B2x’s have had wells fitted to their tenders to increase their water capacity, whilst Nos. 204, 206-209, 211, 212, 314, 323 and 324 now have the large tenders formerly on the C3 goods engines.
“The B4’s were nearly all built in Glasgow at the time of the Boer War, and many carried names reminiscent of that campaign, until Mr. Marsh, with a few exceptions, abandoned the naming of engines.
“The B4’s have been used for a number of trials at one time and another. No. 45 ran from 1902 till 1911 with a Drummond water-tube fire-box. No. 48 worked for some time early in 1905 fitted with templates over the boiler to test the clearance of the newly designed ‘Atlantics’. When Mr. Marsh decided to do away with the old yellow livery in 1905, he painted experimentally two of this class (Nos. 50 and 52) dark green. No. 52 also ran for some time in 1902/3 fitted with Holden’s oil fuel apparatus (as did also some of the B1, B2 and E5 classes). No. 53 ran for several years fitted with the Hotchkiss water circulator, whilst No. 59 worked with a ‘Phoenix’ superheater from 1912 to 1915.
“No. 54 formerly bore the name ‘Empress’, and was at one time used for all Royal specials. She carried the name ‘La France’ for a week in August, 1905, when working special trains in connection with the visit of the French fleet to Portsmouth.
“Several of this class have now been fitted with extended smokeboxes.” [1: p6-8]
A Class B2x 4-4-0 Express Passenger Locomotive. [1: facing p12]A Class C3 0-6-0 Main Line Goods Locomotive No. 301. [1: p46]Class D1 0-4-2T Passenger Locomotive. [1: facing p8]
Tilling next focused on Class C locomotives:
“Class C: are the tender goods engines, of which there are four varieties.
“The C1 class, when built, were amongst the largest goods engines in the country. Only two survive, No. 428 stationed at Fratton and No. 430 at Brighton. They have both recently had the Stroudley patent brake gear removed and the standard arrangement substituted, in order to cope with heavier goods trains. No. 430 in the early days of the war worked a troop special through to Doncaster.
“The C2’s were all built by the Vulcan Foundry Co. They are now being reconstructed as C2x’s, having the larger C3 boiler. Like the B4’s they have makers’ plates on the back of the tenders, but as the tenders have been interchanged at various times, the works numbers on the plates do not necessarily apply to the engines to which the tenders are now attached. Two of the C2x’s, Nos. 524 and 546, are at present (June 1920) on loan to the Great Western Railway; they are stationed at Old Oak Common depot and regularly work through onto the Brighton line.
“The C3’s are nearly all at present attached to the Horsham depot; they were an advance on the C2 class in boiler power, but the first five only had 174-inch cylinders, though the remaining five have 18 inch cylinders. They originally had 3112 gallon tenders, but latterly these large tenders have been transferred to engines of the B2x class and the C3’s now have the smaller ones formerly on the B2x engines.” [1: p8-9]
Tilling continues:
CLASS D: “The D1 class is Stroudley’s well-known front-coupled tank engine. Mr. Stroudley built no fewer than 125 of these engines, distributed over practically the whole period of his rule at Brighton. Whilst designed for the London suburban traffic they have been used on every class of work, and some of them are to be found at every shed on the system. Perhaps Fratton has seen the least of them, but Nos. 254 and 356 are there at present for working the Portsmouth-Chichester rail motor. No. 248 has side tanks with rounded ends as in the Marsh engines.
“No. 625 of this class was the first engine on this railway to be fitted with the Westinghouse brake; and 233 is noteworthy as having been for many years stationed at East Grinstead, being, in fact, the only engine ever stationed there.
“The D3 class is Mr. R. J. Billinton’s four-coupled bogie tank. Having a greater coal and water capacity than the D1’s, they are used on the longer routes. The valve gear and cylinders of this class are interchangeable with those of the C2 goods engines. Two of the D3’s (Nos. 396 and 397) have been rebuilt with the larger boiler of the I2 class.” [1: p9-10]
He continues:
Class E: “The ‘E’ CLASSES are the six-coupled side tanks, the oldest being Stroudley’s E1’s. The first of these appeared in 1874, and the last were turned out in 1891 by Mr. R. J. Billinton, who fitted his own design of boiler which added slightly to the weight. No. 689 has been entirely rebuilt, having new tanks, cab and boiler.
“No. 157 differs from all the other engines of its class. It was built for, and has worked all its life on the difficult Eastbourne-Tunbridge Wells line. It has side tanks and bunker slightly larger than the other E1’s, cylinders 18.25in × 26in, motion as Classes B1 and C1, and weighs 46 tons 18 cwt. in working order.
“Several of the E1’s were condemned for scrap in 1912, and Mr. L. B. Billinton designed an entirely new class to take their place. These are the E2’s. There are ten of this series, the second five having longer side tanks than the others. For a short time, when new, Nos. 103 and 104 worked in the centre of six coaches as a rail motor between London Bridge and Crystal Palace via Forest Hill.
“When Mr. Stroudley died in December 1889, an experimental six-coupled radial tank was in hand. This engine – No. 158 – did not commence work until just two years after his death, and while it had Stroud let’s standard 18.25in × 26in cylinders, it was essentially ‘Billinton’ in appearance. This engine weighed 52 tons 14 cwt. When Mr R. J. Billinton subsequently built sixteen others, they had his standard 18in x 26in cylinders. They are Class E3.
A Class E2 0-6-0T Goods Tank Locomotive, No. 100. [1: facing p36]A Class E5 0-6-2T Mixed Traffic Tank Locomotive, No. 587. [1: facing p37]
Tilling continues:
“The E4’s and E5’s are similar to the E3’s but with larger driving wheels for mixed traffic and passenger work respectively, the capacity of the tanks is, however, larger. Twelve of the E4 class served on active service in France. They were Nos. 470, 481, 498, 504, 506, 516, 518, 562-565 and 580, and were chiefly employed banking trains on the St. Pol-Amiens line. They have all now been returned, and having been overhauled are back in service, painted black and unlined. They still bear the small plate inside the cab with which they were supplied before going overseas, to the effect that they are the property of the LB&SCR. of England. They were the only Brighton engines that were sent overseas during hostilities.
“Four engines of Class E4 have been rebuilt with the larger 12 class boiler and are now classed E4x, whilst four of the E5’s and two of the E6’s have been fitted with the larger C3 boiler and are now class E5x and E6x respectively.
No. 591, one of the E5’s, for some years regularly worked the 8.00 p.m. Grande Vitesse train from London Bridge to Newhaven; this engine is also noteworthy in having retained its name ‘Tillington’ and its yellow livery until 1917, over four years after all other ‘yellow’ engines had disappeared. Several of the E3’s and E4’s have been fitted with circular smokeboxes supported on a saddle, but when they retain the original sized boiler they are not classed E3x or E4x.” [1: p11]
Again, Tilling continues
Class H: This class “consist of the ‘Atlantics’, eleven in number. Mr. Marsh came to Brighton from Doncaster, and the first engine he designed for this railway was based on the familiar G.N. standard express type. Five were at first built by Messrs. Kitson of Leeds (Class H1). The H2’s were built at Brighton some years later; they have super-heaters which allow larger cylinders and lower boiler pressure to be used. Ten of them are stationed at Brighton and one at Eastbourne, and in conjunction with the ‘J’ and ‘L’ tanks they work all the heaviest expresses between London, Brighton and Eastbourne. No. 39 is frequently used for Royal specials, and bears the name ‘La France’. [1: p11-12]
A Class H2 Superheated 4-4-2 Express Passenger Locomotive No. 421. [1: facing p13]
The next class of locomotives that Tilling covers are:
Class I: “The ‘I’ class consist of the ten-wheeled tanks. The I1’s suffer from having too small boilers, but the later I3’s built for express work are very successful engines.
“No. 21 differs from the others in having 6 ft. 9 in. drivers, and the same cylinders and motion as the B4’s; it was fitted with a superheater during 1919. Twenty others of the I3’s are fitted with superheaters but have 21 in. x 26 in. cylinders.
“The I1’s are used on various local services; the I2’s and I4’s (which are the same as the I2’s, but with 20 in. cylinders and superheated) on such services as the London-Tunbridge Wells trains; whilst the I3’s work chiefly between London and the Coast on fast trains.
“No. 23 worked regularly for some weeks during 1909 in conjunction with the LNWR engine No. 7, ‘Titan’, on the ‘Sunny South Special’, running from Brighton through to Rugby one day and returning the next.” [1: p12]
A Class I1 4-4-2T Passenger Tank Locomotive No. 597. [1: facing p20]A Class I3 Superheated 4-4-2T Express Tank Locomotive No. 22. [1: facing p21]
Class J: “The ‘J’ Class consist of two experimental tank engines built by Mr. D. Earle Marsh for the express service between London and the Coast. They are of the ‘Pacific’ or 4-6-2 type with 21 in. × 26 in. cylinders, driving wheels 6 ft. 7 in. diameter, and superheated. No. 325 is fitted with Stephenson’s valve gear, whilst No. 326 was the first engine on this line to be fitted with the Walschaert pattern valve gear.
A Class J Superheated 4-6-2T Express Tank Locomotive – N0.326 ‘Besborough’. [1: facing p28]
Tilling continues:
Class K: “The ‘K’ Class are the latest heavy goods engines designed by Mr. L. B. Billinton for the traffic between London and Newhaven. They are tender engines of the ‘Mogul’ or 2-6-0 type, superheated. The first of these was put into service in September, 1913. To meet the greatly increased goods service to Newhaven, due to the war, another five were built in 1916; they are fitted with top feed to the boilers and have Belpaire fireboxes, and having proved so successful in service others with an improved top feed system are now under construction at Brighton. No. 339, one of the earlier engines, was fitted with this new arrangement in April, 1920, and is illustrated in these pages.” [1: p13]
A Class K Superheated 2-6-0 Fast Goods Locomotive No. 337. [1: facing p29]
He also notes that in 1920 there were:
“Seven engines of the K class … under construction at Brighton, they will be numbered 347 to 353. The engines at present numbered 347 to 353 will in due course be re-numbered 214 to 220; and engines at present numbered 214, 217 and 219 will be re-numbered 618, 619 and 620.” [1: p46]
Another Class K Superheated 2-6-0 Fast Goods Locomotive, No. 339, which was fitted with the, then, latest arrangement of Top Feed (April 2020). [1: p45]
Class L: “The ‘L’ Class consist of two tank engines of the ‘Baltic’ or 4-6-4 type. These are the largest express tank engines in Britain, and were built by Mr. L. B. Billinton to work the fast non-stop service between London and the coast towns at an approximately uniform speed, and so save racing on the down grades. These engines have cylinders of 22 in. diameter and 28 in. stroke, and the boiler which is of ample capacity is fitted with a superheater. The driving wheels are 6 ft. 9 in. diameter, and sufficient water and coal is carried for the longest non-stop run between London and Portsmouth.” [1: p13]
In the years prior to 1920, the LB&SCR had locomotives not recorded by Tilling, these include:
LB&SCR Richmond class: This class was a series of 0-4-2 express passenger locomotives, designed by William Stroudley in 1877. They were a larger version of his “Lyons” class (D2) which were in turn developed from his successful ‘D-tank’ class of 1873. [2]
The six locomotives in this class were built at Brighton railway works and appeared in traffic between October 1878 and March 1880, intended to replace earlier classes designed by John Chester Craven on the heaviest express trains between London and Brighton. They performed well on these duties for a decade but were eventually replaced by Stroudley’s larger “Gladstone” class (B1). They were then transferred to Eastbourne and St Leonards to work on expresses from those towns. During the winter of 1900/01 members of the class were transferred to the duplicate list. Withdrawal commenced in April 1901 and was completed by November 1904. No examples were preserved. [2]
They were originally classified as “B class” together with the members of the larger “Gladstone class”. As all six locomotives had been withdrawn before D.E. Marsh introduced his letter/number classification scheme, they were never officially allocated a new class designation. They were, however, described as ‘D3 class’. [2]
Diagram of a Richmond class 0-4-2, (c) F. Burtt and Public Domain. [2]
Locomotives designed by and built during the tenure of John Chester Craven between his appointment in 1847 and his retirement in January 1870. A full list of these locomotives can be found here. [3]
The ‘Jenny Lind’: The ‘Jenny Lind’ was built in 1847 after a relatively complicated gestation by E. B. Wilson and Company. [4] But it proved to be so successful that the design was used by Wilson & Co. as their standard design and more than seventy examples were built for various railways, including twenty-four for the Midland Railway. It could be said to be the first to be mass-produced to a consistent pattern. Indeed, the manufacturers charged a hefty premium for variations, although in response to pressure, they later built a number of “large jennies”. [4]
Other manufacturers and railways also adopted the type. John Chester Craven, Kirtley’s successor at Brighton, built a class of five similar “Jenny Lind singles” from 1853 to 1854. [4] An enlarged type was also built by Beyer, Peacock and Company in 1860 for the Portuguese South Western Railway. [4]
The original Jenny Lind, (c) Public Domain. [4]
Class G: A prototype single locomotive, No. 151 Grosvenor, was designed by Stroudley and produced by Brighton railway works in December 1874. This was extensively tested before a second, scaled down locomotive No. 325 Abergavenny, was ordered in June 1876 and completed in January 1877. Both locomotives performed adequately, but Abergavenny was significantly less powerful than Grosvenor. A modified design was developed and twelve further locomotives were built between December 1880 and November 1881. The members of this class worked express trains between London and South Coast towns such as Portsmouth, Brighton and Eastbourne, and covered large mileages. The introduction of the Billinton B2 class made the singles redundant on the Portsmouth line and so several were transferred to Tunbridge Wells. … Withdrawals began in May 1907, and the last locomotive survived until May 1914. No examples have been preserved, but there is a model of No. 331 Fairlight in the museum at Sheffield Park on the Bluebell Railway. [5]
London Brighton and South Coast Railway Class G 2-2-2 Locomotive. 26 locomotives were produced in this class. ‘Grosvenor’ was the first, ‘Abergavenny’ was the second (with alterations) and subsequently 24 more were produced, (c) Public Domain. [5]
Very Early Locomotives of the LB&SCR: Wikipedia also provides a list of all the locomotives owned by the LB&SCR from its inception (1846) until 1849. [6] That list includes a significant number of locomotives built by a series of specialist locomotive builders including: Sharp, Roberts & Co.; Jones, Turner and Evans; G and J Rennie; Edward Bury & Co.; William Fairbairn; George Forrester & Co.; Sharp Brothers; R and W Hawthorn Ltd.; Jones & Potts; John George Bodmer; Timothy Hackworth; and Stothert & Slaughter. Many of these were built for companies which formed the LB&SCR in 1846 and were built as early as 1838.
The majority of the locomotives acquired were owned or ordered by one of the three constituent railways, but some had been ordered by the Joint Committee. After the Joint Committee’s dissolution, some locomotives were ordered by John Gray, the new locomotive superintendent, from Timothy Hackworth and delivered during 1847 and 1848. Others were purchased from Stothert & Slaughter between 1847 and 1849. After this date the railway’s new locomotives were designed and built by John Chester Craven, usually at Brighton railway works. [6]
A List of Locomotive of the LB&SCR in 1920: Tilling provides a detailed list, locomotive by locomotive, of locomotives in use by the LB&SCR in 1920 to complete his book. These tables can be found here.
References
W.G. Tilling; The Locomotives of the London, Brighton & South Coast Railway; Tilling, London, 1920.
I have a few older copies of Modern Tramway which I had not yet read. The first of these is the January 1951 issue, this is a second reflection from that copy of the Journal.
As the London network began to close a significant number of trams were sold. This copy of Modern Tramway notes that the remaining ‘Felthams’ were sold to Leeds City Transport.
By the late 1920s trams operated by both the Metropolitan Electric Tramways and the London United Tramways were increasingly aged. The two operators co-operated in the development of a new tram design – the ‘Feltham’. Conceived following detailed research and the construction of a number of prototype cars, the production ‘Felthams’ all entered service by the early 1930s. However, the LPTB’s plans for converting tram routes to trolleybus operation soon saw these modern cars transferred from north of the River Thames to south of the river. Here the production cars mostly survived until the final conversion programme. This was not the end of the story, however, as the majority were sold for further service to Leeds, where the last survivors were to see the final closure of the West Riding system in November 1959. The book explores the story of the ‘Felthams’ in London, Leeds and Sunderland. [2]
“In 1929 the Metropolitan Electric Tramways (MET) placed into service an experimental tramcar, No. 320, manufactured by the Union Construction Company which was located in Feltham. This tram was of a significantly more advanced design than other experimental cars that the MET had trialled in the previous few years, and was the first of three prototypes that led to the final design of what became known as the “Feltham” trams. Two more experimental tramcars were then constructed: MET No. 330 later the same year, and No. 331 the next. After experience in passenger service was assessed, the best features of each were combined to form the final design.” [3][4]
After service in London until 1949 and into the very early 1950s, 92 of these trams were to be purchased by Leeds City Transport. In January 1951, Modern Tramway reports:
“The purchase of the remaining 92 London ‘Feltham’ type cars by Leeds City Transport at a cost of £500 each is a wonderful bargain for the latter city; a bus with the same expectation of life as one of these still very modern cars would cost about £4,000, and a new bogie tram at least £7,000.
“On arrival at Kirkstall Works the trucks are completely stripped and all worn parts are replaced. The hornways where worn are built up by a welding process. It has been found necessary to replace the rubber blocks used in the driving-wheel hornways in London by the correct springs, and the tyres are turned to the standard Leeds profile.
“It was found that the car bodies were structurally quite sound on arrival from London; all that it has been necessary to do to the exterior has been to replace damaged panels and to remove dents in the dash; internally, all the woodwork has had the old varnish removed and has been repolished with a light oak finish, all interior panels being finished in light brown. The seats are removed from the cars and the upholstery thoroughly cleaned. Any cars that are received with seat coverings in poor condition will be re-upholstered in the standard Leeds red leather. A combined route-number and destination blind has been fitted, the apertures used in London for displaying the service number having been painted out; a lower saloon side indicator-blind is also provided. The front exit has not been restored for passenger operation, the air-operated front door being used solely for perambulators and luggage.
“The cars, which are arriving at the rate of two a week, are being numbered from 501 upwards in the order of arrival from London, up to 515 having been received at the time of writing and up to 504 being in passenger service. Arrangements have been made with London Transport for the ex-Metropolitan cars with B.T.H. equipment to be despatched first, to be followed by the ex-London United cars with G.E.C. equipment. The ex-Metropolitan and ex-London United cars will be classified in Leeds as types UCC/1 and UCC/2 respective’y.
“The livery finally decided upon for these cars is ‘British Electric Traction’ red all over, relieved by a cream band below the upper saloon windows and a cream panel above the lower saloon windows. The cars are lined out in gold and the roof, trucks and lifeguards are painted Brunswick black. Car No. 503 lacks the cream bands, whilst car No. 501 is still in London Transport livery.
“The cars have proved very satisfactory in service and are popular with the passengers. Those at present in service operate from Torre Road Depot which will eventually operate ‘Felthams’ exclusively. The riding qualities of these cars on the long reserved-track routes to Crossgates and Templenewsam are good. The Leeds undertaking is to be congratulated on obtaining and reconditioning these fine cars.” [1: p6]
The ‘Felthams’ served in Leeds until the closure of that city’s network in 1959. Wikipedia talks of 90 rather than 92 of these trams operating in Leeds. [3] The Seashore Trolley Museum in Maine, USA agrees with this assessment. [5]
The Seashore Trolley Museum reports:
“Car No. 341 was one of this class known as the ‘Felthams’ (after their place of construction). The ‘Feltham’ cars were the result of a complete vehicle redesign similar to the development of the PCC car in the USA at about the same time. No. 341 was one of 54 cars built for the MET which served London’s northern suburbs. At over 40 feet long, the ‘Felthams’ were relatively long and had a tapering body, large entrance/exit vestibules and a low floor height. A distinctive feature was the higher floor for the operator’s cab. Rather than using overhead wires, London trams (including the MET trams) drew power from an underground conduit, similar to systems in Washington, DC and New York City. When the London Passenger Transport Board acquired the Metropolitan Electric in 1933, No. 341 became No. 2085. The car survived the World War II blitz, but the LPTB’s policy was to replace trams with trolley buses and expanded underground lines. The ‘Felthams’ were the last new trams purchased for London. After 1938, most of LPTB’s remaining tram lines were in South London. In 1948, LPTB was nationalized and became the London Transport Executive. The last London tram ran in 1952. The tram system in Leeds acquired 90 ‘Felthams’ from London Transport in 1950, including No. 2085, which became No. 526 at Leeds. Leeds painted its trams red and used overhead bow collectors rather than trolley poles. Leeds abandoned its trams in 1959.” [5]
Two other ‘Felthams’ have been preserved:
Car No 331 (LTPB No. 2168) which was transferred to Sunderland. This tram was a central entrance prototype which was numbered 100 when in service in Sunderland. It now is part of the National Tramway Museum, Crich, collection. [3]
Car No. 355 (LTPB No. 2099, later Leeds No. 501) is now part of the collection at London Transport Museum, Store, Acton, London. [3]
The featured image captures the Metropolitan Railway locomotive No. 23 during the London Underground centenary celebrations in 1963. The locomotive is an ‘A’ Class 4-4-0T condensing steam engine, built by Beyer Peacock in Manchester in 1866. It was designed specifically for use on the Metropolitan Railway’s Inner Circle line, where it was intended to limit smoke emissions in the tunnels. It was withdrawn from underground use in 1905 after the lines were electrified. Its appearance in 1963 at Neasden was a special event, marking 100 years of the London Underground. [93]
I received a few very welcome gifts for Christmas 2025. This article is the third in a short series:
Colin Judge; The Locomotives, Railway and History 1916-1919 of the National Filling Factory No. 14, Hereford; Industrial Railway Society, Melton Mowbray, Leicestershire, 2025. [1]
Anthony Burton; The Locomotive Pioneers: Early Steam Locomotive Development – 1801-1851; Pen and Sword, Barnsley, 2017. [2]
Christian Wolmar; The Subterranean Railway: How the London Underground was Built and How it Changed the City Forever (2nd extended Edition); Atlantic Books, 2020. This edition includes a chapter on Crossrail.
Neil Parkhouse; British Railway History in Colour Volume 6: Cheltenham and the Cotswold Lines; Lightmoor Press, Lydney, Gloucestershire, 2025.
3. The Subterranean Railway
Christian Wolmar’s book published by Atlantic is a 2nd extended edition of a book published in 2004, dating from 2020. The chapter about Crossrail is the last chapter of the book on pages p323-342. This article provides a potted history of the London Underground and a quick look at other similar systems around the world, which comes out of reading Wolmar’s excellent book.
“Since the Victorian era, London’s Underground has played a vital role in the daily life of generations of Londoners. ‘The Subterranean Railway’ celebrates the vision and determination of the 19th-century pioneers who made the world’s first, and still the largest, underground passenger railway: one of the most impressive engineering achievements in history. … From the early days of steam, via the Underground’s contribution to 20th-century industrial design and its role during two world wars, to the sleek and futuristic Crossrail line, Christian Wolmar reveals London’s hidden wonder and shows how the railway beneath the streets helped create the city we know today.” [3: back cover]
Simon Jenkins: “A total delight… Brings a much-neglected period of the city’s history splendidly to life.”
Tom Fort, Sunday Telegraph: “I can think of few better ways to while away those elastic periods awaiting the arrival of the next east-bound Circle Line train than by reading [this book].”
Christian Wolmar wrote his preface to the 2nd edition at a time when the London Underground was carrying fewer passengers than at any time since the Second World War. As a result of the Covid-19 pandemic the whole of Transport for London was a on life support. He was concerned enough about the state of the Underground to suggest that the future of the system was in doubt. Writing this article in 2025, his concerns seem to be a little dramatic. It is already quite difficult to remember just how disturbing life in the pandemic really was.
Wolmar comments: “While the crisis caused by the pandemic will eventually be overcome, the situation it will leave behind is mixed. On the positive side, there is much to cheer. Compared with when the first edition of this book was published more than a decade and a half ago, there have been substantial improvements, with new trains, refurbished stations and easier ticketing systems. Crossrail, now to be called the Elizabeth Line, provides the most significant improvement to London’s railway network in a generation, if not since 1906-7 when three Tube lines were opened within a year. The Elizabeth Line is rather misnamed since it is not like the existing Tube services, but rather it is a full-sized railway running under the centre of the capital, built to modern standards of safety and space. Air-conditioned, with platform doors and serving nine large below-the-surface stations in central and southeast London, it will relieve overcrowding on several Underground lines and will give many people far quicker access to the centre of the city than was hitherto possible, as it will obviate the need for many to access the Underground via a mainline station. Although Crossrail’s opening, now expected, though not confirmed, to be in 2021, has been delayed by three years and costs have gone up by at least £3bn to £18bn, Londoners will be amazed when the services start running. It is a genuine twenty-first century railway, quite unlike the dingy Tube lines, and will offer a standard of comfort that is far above that on any other local rail services in the capital.” [3: pxiii]
“Yet, hanging over the future of the London Underground is the concern about whether the peak numbers attained in the late 2010s will ever be reached again. There is no doubt that many people will have discovered the possibility of working at home, at least for part of the week, and therefore passenger numbers are bound to be depleted for some time to come. It goes further than that. The very nature of the central London economy is dependent on the hustle-bustle created by its cafés, restaurants, sandwich bars, cinemas and theatres. If a significant number stop going to work, offices will become empty, and the kind of inner-city decline seen the world over in the post-war car-oriented period will return. We have got so used to complaining about overcrowded trains and buses that we have forgotten that without these vast numbers using public transport, it no longer becomes viable. Therefore, if many of these passengers fail to return to use the system, not only will it reduce the likelihood of further investment and perhaps a return to the dog days of the post-war period described in this book, but also it may result in a much wider loss: the vibrancy and buzz of one of the world’s most successful cities. The London Underground is the beating heart of the capital and when it is ailing, so is London.” [3: pxiv]
On 24th November 2023, passenger numbers exceeded 4 million/day for the first time since the pandemic. [5] This was up 7.6 per cent on the equivalent day in 2022 (24th November 2022), when ridership was about 3.76m.
In 2023/24 daily rider numbers averaged around 3.23 million.
Before the pandemic (around 2019), the London Underground saw much higher usage, with daily ridership often hitting 5 million journeys.
Transport usage in London over the years. [6]
The graph above shows that passenger numbers have been gradually recovering from a very low ebb. The picture is considerably better than Wolmar feared.
Wolmar, in his introduction to the 2nd edition says: “Oddly, even many biographies of London pay little attention to the system hidden anything from thirty to 250 feet beneath its surface. Of course there are many books which concentrate on the engineering achievements of the railway and its haphazard construction. The spectacular feat of building a railway underneath a built-up area, a concept so brave and revolutionary that it took nearly forty years for any other country to imitate it, should not be underestimated. The people who devised and developed the concept were visionaries, ready to risk ridicule and bankruptcy to push forward their ideas. This book explains how they did it, but the achievements of the Underground go way beyond its mere construction. Its role in the development of London and its institutions is probably greater than that of any other invention apart, possibly, from the telephone. Without the Underground London would just not be, well, London. Oddly, that is recognized more often abroad where the famous roundel, the ‘logo’ of the system created long before that word was ever in common parlance, is the emblematic image of the English capital.” [3: p5]
Wolmar says that his book is an attempt “to do justice to the achievement of the Underground pioneers not only for having produced a transport system which, for a time, was unparalleled anywhere in the world, but also for having helped create and transform the city. It tells both their story and that of the system they made, and shows that their achievements go far beyond the realm of transport.” [3: p8]
Chapter 1 – Midwife to the Underground
As Wolmar tells the story, the Underground was a concept invented by Charles Pearson who was born in the late 18th century – October 1793, more than two decades before Napoleon met his Waterloo.
Pearson was the City of London solicitor who set out an idea in a pamphlet in 1845 – “a railway running down the Fleet valley to Farringdon that would be protected by a glass envelope. … The trains were to be drawn by atmospheric power so that smoke from steam engines would not cloud the glass. This, of course, was not the scheme that was eventually built, but Pearson’s concept was certainly the kernel of the idea that was to become the Metropolitan Railway two decades later along broadly the same route.” [3: p9]
It was Pearson who masterminded the financing of the Metropolitan which saved the scheme at the eleventh hour. It could also be argued that had he failed in his mission, the underground may never have been built as other transport solutions became available in following decades. However, Paris Metro (1900) and the New York underground (1904) learnt much from London’s experience.
Before the underground, London was growing too fast and its burgeoning traffic was throttling the life out of the economy. Various schemes sought to address the problem: horse drawn omnibuses; horse drawn trams. Both resulted in an even faster growth in the population. London was “a vortex, sucking in an ever greater proportion of the nation’s population. It was the most exciting city in the world and everyone wanted or needed to live there.” [3: p13] A failure of imagination by railway companies left the immediate areas outside the compact city limits with very few stations. No one appreciated the lucrative market that would develop if it was resourced effectively. The railways as a result had a much lesser effect on London than they did in the regions. [7]
Land values South of the Thames were lower than on the North side of the river and overground services developed alongside urban expansion to the South of the river in a way that just was not possible North of the river. The first of those lines, the London & Greenwich was built on 878 arches and its promoters sought to serve the local population rather than long distant destinations. “The line was soon carrying 1,500 people per day … on trains that ran every quarter of an hour throughout the day. … By the mid-1840s, … 5,500 people were being carried daily. … It was not until the invention at the end of the nineteenth century of tube railways,which ran deep into the London clay,that the underground system was to reach across the Thames.” [3: p15-16]
The popularity of the London & Greenwich Railway showed that railways could successfully be used for short journeys. Pearson’s vision transcended modes of transport, he sought to create affordable housing outside the city linked by affordable transport which would allow even lowly paid workers access to good housing and onto the city for work. Pearson was a campaigning social reformer but faced opposition in most areas where he sought to bring reform. It seems as though “his tenacity, perhaps prompted by these setbacks, brought the scheme for an underground railway to fruition.” [3: p19]
The Royal Commission on Metropolitan Railway Termini of 1846 ruled against the vast majority of proposals seeking to access the core of the City of London. Seventeen of the nineteen proposals were rejected, and only conditional assent to two schemes which were extensions South of the Thames. This commission’s decisions effectively created the need for the underground.
A map of London in 1836 overlaid with the area confirmed by the Royal Commission into which railways should be prevented from entering Map: J Henshall (engraver and printer). Outline: David Cane based on description contained Royal Commission’s report. This image is licenced for reuse under a Creative Commons licence (CC BY-SA 4.0). [27]
The next inquiry took place in 1854-1855. It again rejected the majority of railway schemes but recommended an ‘orbital’ railway connecting the various Termini, the Post Office and the docks, and foreshadowed the Metropolitan Railway.
Pearson’s plan for an underground railway required “bloody-minded persistence … to persuade investors to stump up the money, even though the scheme had been endorsed … by Parliament.” [3: p26]
Chapter 2 – The Underground Arrives
Wolmar takes some time to outline the nefarious practices of the Metropolitan Railway driving their line down the Fleet valley. The Company was not alone in these practices. Wealthy landowners fought either to keep the railway off their land or to maximise the compensation paid. Most people, particularly slum-dwellers, were unable to fight powerful companies. Railways probably picked the alignment of their lines so as to avoid those most able to fight them. They were required to report the numbers of those displaced. The official figure for those displaced on the length from Paddington to Farringdon Street was 307. A contemporary source (Wolmar cites George Godwin) [8] claimed that the actual numbers for the length from King’s Cross to Farringdon Street were 1000 houses demolished with approximately 12,000 people displaced.
However, by 1857, the Metropolitan Railway was struggling to draw together enough finance for the scheme and were closed to winding up the business. Instead, in 1858, they decided to spend £1000 in a final attempt to attract investors. Pearson (not a director of the Company) came to the rescue, persuading the City of London Corporation to invest in the project. It was the congestion on the streets that ultimately convinced the Corporation that the project was necessary. Construction began in 1860 [3: p33]
Despite some significant obstacles to be overcome the line opened officially on 9th January 1863. The first length of the Metropolitan Railway, the world’s first underground railway, was 3¾ miles (6 km) long, running between Paddington (Bishop’s Road) and Farringdon Street.
The first length of the Metropolitan Railway ran between Paddington Railway Station and Farringdon Street. [12]
Apart from various difficulties during construction, Wolmar tells that “the most intractable problem … was for the Underground’s engineers to devise a way of operating trains that did not choke their passengers. As one account puts it, ‘Pearson’s main problem was finding an engine suitable for use underground. The users’ problem was managing to breathe’. [9: p132] In fact it was more Fowler’s problem than Pearson’s and, canny engineer though he was, not all his ideas were sensible. He had originally envisaged that trains should be blown through an airtight container using giant compressors at each terminal but … the problem with such ‘atmospheric railways’ was the difficulty of keeping a tight seal.” [3: p39]
Smoke pollution and steam emissions were a very significant problem. A hybrid system was designedby Robert Stephenson “at Fowler’s behest – known as Fowler’s Ghost – which used bricks as heat storage when in tunnels and operated normally outside, proved to be too unreliable, and was rejected after trials.” [3: p40] Daniel Gooch was then asked to design an engine that would divert steam into a cold water condensing tank. This engine used coke rather than coal to minimise smoke emissions. Coke was, however, proven to be more toxic than coal andthe Metropolitan later reverted to coal. [3: p40]
Pearson died in September 1862, still refusing to accept any reward for his work beyond his salary from the Corporation! His widow, however, was granted an annuity of £250/year despite Pearson not being a Company employee.
Chapter 3 – London Goes Underground
Wolmar tells us that the Metropolitan Railway was very popular. On the first day of timetabled services, 10th January 1863, 30,000 people travelled on the line! The takings that day amounted to £850.
Problems with smoke and steam persisted and complaints increased. The Company installed ventilation shafts between King’s Cross and Edgware Road in the early 1870s. Wolmar comments that these acted like “boreholes whose sudden emission of smoke and steam frequently startled passing horses.” [3: p47] Whatever was tried to alleviate the problem, it remained an issue until electric trains replaced steam in the first decade of the 20th century.
Rather than continuing to employ standard steam locomotives, the Company “ordered eighteen tank locomotives from … Beyer, Peacock. … The key feature was the condensing equipment which prevented most of the steam from escaping in the tunnels although partly this depended on the diligence of the driver who needed to refill the water as often as possible in order to keep it cool. … They were beautiful little engines, painted green and distinguished particularly by their enormous external cylinders. The design proved so successful that eventually 120 were built, providing the basis of traction on the Metropolitan and all the other early ‘cut and cover’ Underground lines until the advent of electrification.” [3: p48]
Instead of steam exhausting up the chimney, it was redirected along pipes back into side tanks where it condensed, for re-use. Although not massively successful, it was an active attempt to address tunnel conditions. [13]
Metropolitan Railway ‘A’ class 4-4-0T locomotive No. 27. These locomotives were first turned out in green. Their later livery was maroon in colour. [14]
Wolmar comments that despite all the problems, “Londoners seemed to have been prepared to venture down to use the line. Indeed, the bad publicity before the opening may even have contributed towards the Metropolitan’s success by lowering expectations so that travellers were then surprised to find it was not quite as bad as they had been led to expect. By the standards of Victorian railway building the Metropolitan was highly successful, even in financial terms. In the first full year of operation, 11.8 million people used the line, more than four times the population of the capital – a daily average, including Sundays, of 32,300, which was a remarkable achievement given the limited route it served. … The peak day in the first year for the Metropolitan was Saturday, 7th March, when Princess Alexandra of Denmark arrived in London for her marriage to the Prince of Wales: 60,000 people, double the usual number, travelled on the line.” [3: p50]
In May 1864 the Metropolitan Railway’s gross receipts were £720/mile/week. The comparative figure for the London, Chatham & Dover, which was the next best performing line, was £80. Profits in the first year were £102,000 and a dividend of 6.25% was paid to shareholders. In its first 44 years the Metropolitan Railway “did not experience a single railway accident resulting in the death of a passenger, which is extraordinary given the intensity of service, the use of steam engines and high passenger numbers. Indeed, according to the definitive history of London’s transport, ‘during the whole period of steam operation, there was no fatal accident to any passenger in these cuttings and tunnels’ [15: p118] caused by a train collision or derailment. The first serious accident on the underground system involved a head-on collision near Earls Court in August 1885 between a District train and a Great Western service, which killed the two crew of the Great Western train.” [3: p54]
The Metropolitan was not just a local passenger line. The GWR ran through passenger trains via Paddington and the Great Northern via King’s Cross to and from Farringdon Street Station. The Metropolitan Railway was also used for freight. In fact, “freight was carried until well after World War Two.” [3: p62]
Wolmar goes on to identify the development of the underground network:
The Metropolitan Railway’s own expansion plans took time to realise (a quarter of a century), but various connections and lines were added to allow the major railway companies in the capital to make use of the line. The short line became even more profitable!
Its success resulted in what Wolmar says were 259 different projects for creating 300 miles of railway. Wolmar says that “if all the lines had been built, four new bridges would have been needed across the Thames and only a quarter of the existing city would have been left standing.” [3: p62]
It seems that the City could not contemplate a free-for-all. It set new parameters for railway schemes in the capital and referred around 20 schemes to a joint committee of both Houses of Parliament. That committee rejected all but four of the lines affecting the Metropolitan. Three were for sections of what would become the inner Circle and one which would allow the company to expand out from Baker Street to the Northwest. [3: p63]
The Metropolitan expanded first by widening (adding tracks) to accommodate heavy traffic loads which were added to by the completion of St. Pancras and its connection to the Metropolitan. It then extended into the City via Aldergate Street to Moorgate (1865). The London, Chatham & Dover Railway crossed the Thames in 1864 and joined the Metropolitan at an extended Farringdon Street Station in 1866. [3: p64]
By 1871 when a connection was made between Snow Hill Junction and Smithfield, there were half a dozen main line railways connected to the Metropolitan Railway and it provided the only North-South cross-London rail route.
While passenger services began to decline in the early years of the 20th century with the advent of more direct bus services, goods trains remained heavy users of the line. “The vital link through the Snow Hill Tunnel fell into disuse in the 1960s but was reopened in 1988 … and is used by heavily loaded Thameslink trains.” [3: p66]
The Metropolitan’s first extension left Baker Street and ran as far as Swiss Cottage in April 1868. This insignificant line became “the start of a major extension of the Metropolitan that would stimulate growth of a whole quadrant of London.” [3: p67]
The Metropolitan began to spread its tentacles, but first London was to get its Circle line. “The line would be controlled by two rival companies, led by railway pioneers who hated each other: James Starts Forbes and Edward Watkins.” [3: p70]
Chapter 4 – The Line to Nowhere
Wolmar says that before completion of the Circle line, the Metropolitan was little more than a tunnel under London. “The Circle changed that. London would, thereafter, have a genuine underground railway with many journeys both starting and ending beneath the streets.” [3: p71]
In 1863, a House of Lords Committee determined “that a connection between the main line termini would best be achieved by extending the Metropolitan eastwards from Moorgate and westwards from Paddington, eventually meeting the Thames.” [3: p72]
A second committee, a joint committee of the Lords and Commons, examined proposals submitted by Sir John Fowler and a series of other schemes and decided in favour of Fowler’s proposals. Three bills were quickly drawn up and we’re on the statute books in July.
Work between Paddington and South Kensington began immediately and by 1868 the line to South Kensington was open. The planned connection to the District line was under construction from Kensington to Westminster. It took 3 years to build and because of the constraints placed on it cost £3 million.
Construction of the Underground was used as a catalyst for reshaping large swathes of London. Reading Wolmar’s description of these changes suggests that it was an excellent excuse for the redevelopment of different areas. [3: p73-85]
Work on the Embankment started in 1869 which was meant to include a stretch of the District line. The District line wanted time to recover from the excessive costs associated with construction between Kensington and Westminster. The Metropolitan Board of Works pressed for the railway to continue construction. It took until 1870 for the District to obtain powers to raise the necessary £1.5 million. But by May 1870, the line was open through to Blackfriars. [3: p75]
Wolmar says that, six weeks after the extension to Blackfriars, the Embankment was opened but “the East and West Ends were very different worlds and it would be another fifteen years before the underground linked them as well.” [3: p76]
Once the line reached Mansion House (July 1871, [16]), services on the District Line ran all the way round to the Metropolitan’s new terminus at Moorgate. Both companies had over-extended themselves. The obvious way forward was for the two companies to merge. However, each company had appointed an individual to lead them out of financial difficulty. The two individuals concerned, J.S. Forbes and E. Watkins, had a shared history that meant cooperation would be extremely unlikely! [3: p76]
Wolmar comments: “Forbes and Watkin were very different characters who had headed rival railways. James Staats Forbes had worked for Brunel on the construction of the Great Western and had gone on to save the London, Chatham & Dover Railway – which had been on a path of almost suicidal expansion and cut-throat competition with the South Eastern – from bankruptcy. He started there as general manager in 1862, taking the railway out of receivership and then going on to stay nearly four decades, the last twenty-five years as chairman and described as a past master in the art of bunkum’, [17] and was, on the surface, an easygoing and cultured character who built up an extensive art collection with the money he made from the railways. He also had a steely backbone that was to help fuel the thirty-year feud with Watkin, who had an even more aggressive and domineering personality. The District’s directors were so desperate to obtain Forbes’s services that they reduced their own allowance by £1,250 in order to pay him a salary of £2,500 without imposing a further financial burden on the shareholders. Forbes became the managing director of the District in 1870 and chairman when he ousted the Earl of Devon a couple of years later. ” [3: p76-77]
Wolmar describes Forbes as a company doctor resolving a legacy of unrealistic expansion. He describes Watkins as a great visionary, ever espousing grand plans. He had access to family wealth and associates who could help promote his railway ambitions. He was a campaigner, seeking the provision of public parks, and pushing for workers to have Saturday afternoons off. He was an MP for a while. Wolmar tells us that, “At one time or another during his long career he was a director of most of the major main line railway companies in England, and he was involved in many railway projects abroad, notably in Greece, and in Canada where his efforts to save the Grand Trunk Railway ensured that the country eventually obtained a transcontinental line.” [3: p77]
Wolmar cites a few sources that described Watkins and which build up a picture of someone who, “was a difficult man to work with. Although he was, at times, extremely affable, he was ruthless and enjoyed nothing more than a good fight, including public disputes with the directors of companies he chaired. His belligerence resulted in a battle with Forbes that lasted for over three decades, but fortunately for Londoners, most of the conflict between the pair was fought out in the Kent countryside. Even today, the pattern of the railway network and the existence of two stations in many modest-sized towns such as Maidstone, Sevenoaks and Margate, serving different London termini, is a reflection of the long battle between the two railways when they were led, respectively, by Forbes and Watkin. Watkin was secretive and abrasive in negotiations, while Forbes, possibly disingenuously, presented himself as more amenable. Forbes refused to bow to pressure from his rival and set out to expand to survive. The ruinous competition, which was to the detriment of both passengers and shareholders of the two railways, only ended when Waking retired in 1894; within five years the two companies had effectively merged.” [3: p78]
Although not as wasteful as in the Kent countryside, Forbes and Watkin’s animosity cost their respective companies dear. The Metropolitan’s expansion eastward came to a halt after connecting with Liverpool Street Railway Station, Bishopsgate and Aldgate in 1876. Cut and cover construction was just too expensive to contemplate further expansion.
James Forbes expanded south-westward, connecting the towns of Ealing, Richmond and Wimbledon to Westminster by 1879. As much of the land was not heavily developed, it was significantly cheaper to build above ground out west than to go underground in central London. The expansion was popular, and facilitated London’s growth to encompass many once separate towns and villages. [17]
Meanwhile, Edward Watkin was creating new branches of his railway, going west and north. His intention was to link his underground section in London to the other railways he owned in the North of England. It was a project which ran out of funds, and ground to a halt 50 miles outside of the capital. [18]
He intended his scheme to be considerably more grand than Eiffel’s scheme in Paris. He planned an hotel, a theatre and restaurants. Eiffel was asked to design the landmark, but declined.
But we have digressed from the time line of the creation of the Underground and slipped away from Wolmar’s story. …
Wolmar tells us that, “The need for the completion of the Circle was apparent from the high usage of the sections that were already built. By 1875, the Metropolitan was carrying 48 million passengers per year, and the District, though continuing to struggle, managed to carry around half that number, still a substantial achievement. Three quarters of these passengers used third class, suggesting they were manual workers and low-paid clerks attracted by the low fares, but interestingly, as it expanded, the Underground managed to attract a substantial body of first-class passengers.” [3: p82]
Interestingly, “rather than the Underground eating into the traffic of its main rival, the horse drawn omnibus, usage of both … increased after the creation of the Metropolitan. The number of omnibus users rose from 40 million in the year of the Metropolitan’s opening to nearly 50 million in 1875.” [3: p83]
There was an early recognition in some locations in London of the need for an integrated transport system. “In some cases, the Underground companies had to subsidize … feeder services in order to boost passenger numbers on their trains. When the District first opened, there was no public transport between Regent Street and Church Lane (now High Street) Kensington, or anything along Park Lane or Palace Road. … In this affluent area of Central and West London people could afford their own carriages. … The District had to guarantee the revenue for the first omnibuses between Victoria and Paddington along Park Lane. Similarly, the Metropolitan paid for services from Piccadilly along Regent Street to what is now Great Portland Street station.” [3: p83]
‘Fun London Tours‘ comment: “with Watkin and Forbes going every which way but round, by the 1880s the government was getting frustrated with the lack of a Circle Line, so a third, separate company was formed to fill in the gaps between the Metropolitan and District Railways. Watkin wasn’t happy with this at all, bought it out and decided to finish the job himself.” [20] This somewhat over simplifies what actually happened..
Wolmar talks of the two companies ailing, and of others trying to fill the gap. A group of city financiers formed the Metropolitan Inner Circle Completion Company (MICCC) in June 1873. They planned to build the link between Mansion House and Bow and to link with three other railways’ metals (the North London, the Great Eastern and the East London [21][23][25]). “This scheme … obtained Parliamentary powers in 1874 [which] prompted a couple of years of wheeling anddealing, with Watkins, as ever, behaving badly.” [3: p84]
When the MICCC failed to raise enough capital, only one solution was left. Forbes and Watkin would have to work together!
Wolmar tells the story: “A contractor, Charles Lucas, compersuaded the two enemies, Forbes and Watkin, to meet and agree a short-term peace agreement in order at last to complete the Circle. They managed to persuade the Commissioners of Sewers to raise their offer to £250,000 and the [Metropolitan Board of Works] to £500,000. Even then, it took an outsider to knock the heads of the two companies together. With several other schemes being put forward by promoters, there was an inquiry chaired by Sir John Hawkshaw who, arbitrating, recommended that the joint scheme by the two existing railways should be selected, presumably on the basis that the involvement of a third party would have led to chaos.” [3: p85]
The first train to travel in a loop around London was at the opening of the final link on 17th September 1884. Public services started on 6th October 1884. It appears to have been chaos! … “In addition to the 140 trains scheduled on the inner Circle in each direction, a further 684 were timetabled to use part of the line, entering at Cromwell Road from the west, Praed Street (near Paddington) from the north-west and Whitechapel from the east. That meant a total of 964, around a hundred more than the line could cope with. The financial arrangements between the Metropolitan and the District were at the root of this attempt to run too many trains as the District essentially paid a fixed fee irrespective of the number of trains it operated.” [3: p87][28]
Wolmar extensively describes the turmoil which occurred on pages 87 to 90 of his book. In addition, financial problems, mostly due to the high capital costs of construction but exacerbated by the route being designed (effectively) by parliamentary commission.bWhen the first short section of the Metropolitan Railway opened there were 9.5 million journeys each year, receipts of £101,000 and a healthy divided for shareholders. “In the first year of operation of the Circle there were 114.5 million passengers. However, that was still not enough to pay adequate dividends given the expenditure on the Circle’s construction and the cost of operating the line.” [3: p90]
Wolmar highlights factors which affected the comparative viability of the underground service and particularly the District line: [3: p90-92]
Cheaper omnibus fares meant that those horse-drawn services were still attractive to the paying customers. Operators could keep prices lower because: turnpike tolls and mileage duties had been scrapped; business rates for the omnibus companies were subsidized; road conditions were much improved along routes followed by the underground as surfaces were renewed as part of the construction of the underground; the railways had to pay a passenger tax for all fares above a penny a mile; new highways had been introduced as part of a city-wide project to create wider and better streets which unblocked congestion; horse-trams were excluded from central London giving free-reign to the omnibuses on the streets. the price of maize for horse-feed dropped considerably in the 1880s.
Completion of the Circle did little to improve the situation for the District (many prospective passengers from South of the Thames could choose their London terminus to avoid having to change onto the Underground)
The geography of the line was not helpful to the District (at the East the progress of trains was held up by watering at Aldgate and congestion ahead on the line, it was often quicker to walk into the City and particularly to the Bank of England which was some distance from any available underground station).
In effect, while the northern section could be profitable, the Southern section may well never be. Ultimately though, Wolmar states, “Underground entrepreneurs … were building a fantastic resource for Londoners whose value could never be adequately reflected through the fare box which was their only source of income.” [3: p93]
Chapter 5 – Spreading Out
In this chapter, Wolmar highlights Sir Edward Watkin’s grandiose vision for the Metropolitan. We have already seen his plans for the Wembley area. He also imagined a line to Worcester and to the Northwest. He dreamt of a line running from the Northwest, through London to the Kent coast and on through a tunnel under the Channel to meet up with one of his French investments which would carry passengers all the way to Paris. He also imagined an extensive suburban network to the Northwest of the City of London. This vision would become known by an unofficial name – Metroland.
Watkin’s original powerbase was the Manchester, Sheffield & Lincolnshire Railway (MS&LR). [3: p96] He was never one to sell himself short. He was an ambitious visionary, and presided over large-scale railway engineering projects to fulfil his business aspirations, eventually rising to become chairman of nine different British railway companies. [30]
His vision for the Northwest suburbs of London was allied to his desire to see his MS&LR connected to the capital. Although other projects did not come to fruition, both Metroland and the MS&LR’s London Extension (opened in 1899 and which became the Great Central Railway) certainly did. [30]
In addition to his railway interests, Watkins was three times an MP before becoming a Baronet. From April to August 1857 he was an MP for Great Yarmouth. He was an MP for Stockport from 1864 to 1868, and for Hythe from 1874 to 1895. He was Baronet of Rose Hill from 1880 until his death in 1901. [30]
Watkins had cultivated relationships in Parliament and across the establishment which meant that his schemes were given credence and considered seriously. Ultimately, however, despite some geological promise and early digging success, [31] Watkin’s Channel tunnel scheme failed because:
military concerns about it being used by invading forces outweighed perceived benefits; [32]
Watkin’s scheme and other similar proposals could not garner sufficient political support in Parliament; [33] and,
insufficient financial support could be envisaged. [35]
I suspect that until electrical technology had developed significantly beyond what was available in the 1880s, a suitable form of propulsion would not have materialised. Problems experienced with steam and smoke on the Underground and no effective method of dealing with those problems having been found, would have meant that Watkin’s scheme would have foundered technically.
This short digression to focus on Watkin’s ultimately unsuccessful Channel tunnel scheme, supported by a series of notes below, shows something of Watkin’s capacity to move from ideas towards practical implementation of large projects through the political process. The suburban area to the Northwest of the City of London and the London extension of the MS&LR benefitted from those skills! [37]
Returning to Wolmar’s book about the Underground and its expansion. … He says that, at least in Watkin’s thinking, his goal of creating what would become the Great Central Railway might more readily be achieved politically by the Metropolitan Railway breaking out of London than for the MS&LR to break in. [3: p96][38: p22]
Watkin first focussed on developing the potential of the short stubby single track line from Baker Street to Swiss cottage. “Once out of the immediate vicinity of central London, the railway was built on the surface, which … was much cheaper. Powers were … obtained for the tunnel to be continued from Swiss Cottage to Finchley Road and then for the railway to run in the open air through to West Hampstead, Kilburn and Willesden Green, which was reached in 1879.” [3: p97]
Harrow was reached in 1880. Within five years the Harrow line reached Pinner. Rickmansworth and Chesham were added by the end of the 1880s.
Aylesbury Railway Station was rebuilt by the Metropolitan by 1892 and the Metropolitan then extended 50 miles from central London. The MS&LR was to connect to the Metropolitan at Aylesbury but Watkins quickly realised that Baker Street would be an inadequate terminus. He pushed for a new terminus at Marylebone, leaving Baker Street to serve suburban services, either stopping there or running onto the Underground.
When Watkins died in 1901, he had not seen the astonishing future of his line and the creation of ‘Metroland’.
Wolmar also covers the history of the East London line which was built to make use of the tunnel built by Marc and Isambard Brunel. This line was something of an anomaly on the London underground map until refurbishment and reopening as part of the London Overground.
We have spent quite a bit of time focussing on Watkins and his schemes (of which the East London became one) Wolmar now turns to look at Forbes’ plans. He “had ambitions for the District to make … incursions into East London, but [would have] to wait until 1902, just two years before his death, when the long-mooted Whitechapel and Bow section finally opened.” [3: p103] It extended to Upminster and opened up areas of what was the Essex countryside.
It was a different story to the West of the City, although with none of the aspirations of the Metropolitan to become a main line. The District spread westwards. Wolmar says that Forbes “looked to Hammersmith, Kew and Richmond as potentially lucrative markets.” [3: p105] Hammersmith was reached in 1874 (10 years after the Metropolitan). It became the area to the West of London best served by the Underground. Three years later, the District reached Richmond (partly using London & South Western Railway metals).
The District reached Ealing in 1879. A connection with the GWR, meant that trains could provide a service from Mansion House to Windsor, although the service was not well-patronised.
Local interests promoted a new company – the Hounslow & Metropolitan high linked Hounslow to the District’s Ealing Branch. It was completed in 1886 and was worked by the District.I
In the South, the line to West Brompton was extended towards the Thames and Putney Bridge and opened in March 1880, just in time for the Oxford and Cambridge Boat Race.
After a campaign by local interests the planned line across Wimbledon Common to Wimbledon was diverted to avoid the Common. Wolmar states: “Apart from an extension to South Harrow and then Uxbridge (the latter actually eventually passed to the Metropolitan), and a loop to South Acton, all completed in the first decade of the new century, this was the end of the District’s expansion westwards.” [3: p108]
Chapter 6 – The Sewer Rats
Arguably, the District did more than the Metropolitan to stimulate suburban development because of the relative density of its lines. The District’s tracks were incredibly busy. By 1880, trains were serving Fulham, Richmond and Ealing. By 1904, the District was carrying 51 million passengers per year and, on average, running nearly twenty trains per hour between South Kensington and Mansion House, with more during the peak. [3: p109]
Wolmar says: “The vexed issues of ventilation had never gone away and remained a source of controversy until the electrification of the lines in 1905.” [3: p110] He allocated a number of pages to a description by the journalist Fred Jane of travel on the Underground in the days of steam. [3: p110-114] Another quoted is R.D.Blumenthal. [3: p114]
“The District … sponsored many bus services, run by contractors, to feed into its system and it made sure that it laid on extra services for special events. … Exhibitions were a major source of traffic and many were held at the then open grounds between the Albert Hall and South Kensington.” [3: p115] Until December 1908, when tolls were abolished, the District controlled access via a pedestrian subway under Exhibition Road from South Kensington station. “The opening of the passage in May 1885 coincided with the start of an Inventions Exhibition and thereafter the District, rather meanly, only allowed it to be used on special occasions. … Many of the … exhibitions … in the 1880s attracted huge crowds, including fisheries (attended by 2.75 million people), health, and ‘colonial & Indian’ (the biggest, which brought in 5.5 million). … After 1886, when the site was developed for what is now Imperial College, the exhibitions moved to Earls Court.” [3: p115]
Passenger traffic on the Underground was enhanced by a booming entertainment industry – theatres and music halls. While Wolmar notes the importance of leisure travellers to the financial health of underground companies, he emphasises the fact that in the case of the underground it was the presence of the railways that brought about demand and significant long-term growth. [3: p117]
Once the main line companies recognised the fact that suburbs were developing around stations on the Underground and the suburban network. “Whole swathes of the Greater London area were filled in as railways focussed on local traffic. In particular, the railways made travel to the outer suburbs such as Croydon, Bromley, Harrow, Wanstead and Walthamstow possible, as no other form of transport could have brought so many people into the capital fast enough.This was mostly a middle class phenomenon. The working classes could not afford the cost of commuting added to the rents which, in most of the areas reached by the railways, were still relatively high.” [3: p119]
The Underground in particular played, “a vital role in stimulating this growth not just because of the suburban incursions made by the District and Metropolitan but also because it took people right into the heart of the City and the West End, whereas rail passengers were left on the fringes. Without the Underground to connect the various termini, the extensive development in the second half of the nineteenth century could never have taken place so quickly. London grew from a population of 2.8 million in 1861 to over 7 million fifty years later. That outward push was further accelerated by the development of a new office economy, centred around the West End which had a burgeoning number of offices and was also establishing itself as London’s premier retail centre. Employment in the City was also expanding, with many former residences being turned into offices, and resulting in more commuting.” [3: p120]
Wolmar comments: “Despite the Underground’s success in attracting custom, until electrification, travelling on it remained an experience which ranged from broadly acceptable to downright awful, depending on the passengers’ stoicism. There was growing pressure from the passengers for better conditions. … While there had been some improvements, such as heaters on trains and station indicators on platforms, during the last few years of the nineteenth century there was a growing clamour for a major improvement of the system. There were suggestions of doubling the District line on its busy section between Earls Court and Mansion House, possibly through a deep tube railway, but this expensive project was never really feasible. Instead, electrification was seen as the only way of making the required modernization.” [3: p123]
In spite of the clamour, and the fact that the first tube railways, the City & South London Railway (which opened in 1890), was electrically powered, [39] the Metropolitan and District railways were slow to embrace the new technology. It was not until 1905, that steam was finally replaced.
Wolmar notes that, “The construction of the second deep tube railway, the Central, which ran parallel to the two main east-west sections of the Circle, together with increased competition from horse buses and the rising price of the high-quality coal which the Underground companies were forced to use in order to limit pollution in the tunnels, meant that by the turn of the century electrification could be put off no longer. The more affluent Metropolitan braved the issue first, installing two conductor rails as test track on a long siding in Wembley Park in 1897. More substantially, in 1898, the District and the Metropolitan made an agreement to conduct an experiment by electrifying the short section of track between High Street Kensington and Earls Court with power being supplied from a third rail. The line was opened to the public in May 1900, offering the chance to ride in the large and very heavy purpose-built six-car electric trains for a shilling. That was not a great bargain since for the past decade Londoners had been able to ride on the City & South London for a mere twopence and the following month the Central opened with the same fares.” [41][3: p124]
The Metropolitan favoured overhead lines, surprisingly Forbes also favour overhead lines, but little did that matter. He was ousted from the board of the District by Charles Yerkes, an American businessman with experience of the use of third rail in the USA. He forced through a third rail policy at the District, and immediately clashed with the Metropolitan. It took the Board of Trade to step in and arbitrate. The judge working for the Board of Trade found in favour of the District’s third rail. [3: p125] The decision was based on the proven technology in use on the City & South London.
The idea of cooperation remained an anathema! It would not be countenanced by the Metropolitan and the District. “The District built an enormous power station at Lots Road on the Fulham and Chelsea border, a site chosen for ease of access for the barges bringing coal along the Thames. … The Metropolitan obtained most of its electricity from a plant at Neasden in Northwest London, where the coal could be delivered easily by rail.” 3: p129]
For 44 years steam operated in cramped tunnels without major mishap! Across the world, the early years of the 20th century saw a number of underground networks constructed – all bar two were operated by electricity. Glasgow: opened in 1896, used stationary steam engines hauling a cable to pull trains; [43] and Liverpool: the trains if the Mersey Railway were steam-hauled from 1886 until electrification in 1903. [44]
By 2nd September 1907 all steam passenger services had been replaced by electric-powered service. All that remained powered by steam were some maintenance trains and overnight freight services which continued until the 1960s. [3: p128]
Wolmar goes on to describe underground systems in:
Budapest: the first line (now known as M1) was built to serve a major exhibition in the main city park in 1896. [3: p129] In fact, this was the first of a number of lines in Budapest. Between 1970 and 1990 the metro was extended with metro line M2 and M3. Metro line M4 was completed in 2014. Since 2014 the length of the entire metro system is 39.4 kilometers and it has 52 stations. … Among the railway’s innovative elements were bidirectional tram cars; electric lighting in the subway stations and tram cars; and an overhead wire structure instead of a third-rail system for power. [45]
Vienna: the idea of an underground railway was mooted as early as 1843 but it was the late 1890s when the Stadtbahn opened. “While there were some tunnel sections on the three lines, most of this steam-operated railway was at street level or above.” [3: p130] … The system was opened in stages between 11th May 1898 and 6th August 1901. [47] Sadly, the Stadtbahn proved to be inadequate, less effective than the city’s tramway network. A series of different schemes were considered over the years. [48] An extended article about the Vienna network can be found here. [49]
A Stadtbahn train at the Josefstädter Straße station with trams in the foreground. [49]
Paris: Wolmar tells us that, “the system which opened in 1900 was electrically powered.” [3: p130] The Paris Metro’s history began with construction in 1898 for the 1900 World Exposition, opening Line 1 on 19th July 1900, to serve the games and boost city mobility, utilizing innovative underground engineering for a largely subterranean system with electric trains, becoming an instant success and rapidly expanding into one of the world’s most extensive urban rail networks by the 1930s. A history of the Paris Metro can be found here. [50]
New York: Wolmar says that the new subway in New York was electrically-powered. “Elevated railways built above roads had proliferated from 1872, being preferred to underground railways on the grounds of cheapness and because of the lack of historic buildings whose aspect would be ruined by unsightly railways. … New Yorkers finally tired of the noisy, steam-hauled trains passing their second-floor windows at all times of the day, and work on a subway system, using electric trains to replace some of them, started in 1901.” [3: p130] “The first underground line of the subway opened on 27th October 1904, almost 36 years after the opening of the first elevated line in New York City. … The 9.1-mile (14.6 km) subway line, then called the “Manhattan Main Line”, ran from City Hall station northward under Lafayette Street (then named Elm Street) and Park Avenue (then named Fourth Avenue) before turning westward at 42nd Street. It then curved northward again at Times Square, continuing under Broadway before terminating at 145th Street station in Harlem.” [52] A detailed history of the New York Subway can be found here. [52]
Wolmar then discusses the results of electrification of the London Underground, which were not as significant as the companies hoped. Nonetheless, “by the early years of the 20th century, London had an extensive, mostly electrified overground network linking in with the Underground. … But the real task was to improve services in central London, given its rapidly growing employment, and this could only be done through … new tunnelling techniques.” [3: p131-132]
Chapter 7 – Deep Under London
Marc and Isambard Brunel developed a shield to build the first tunnel under the Thames. Later, Peter Barlow improved the technique utilising cast-iron circular segments bolted together to form the tunnel as the shield moved forward. [3: p134] It was 20 years after Barlow’s scheme that the first tube tunnel was completed using technology enhanced by a former pupil of Barlow, James Greathead. He perfected a system which allowed concrete to be cast behind the advancing shield preventing collapse.
Under much of London is a thick layer of clay with an overburden of gravel. The clay is relatively easy to cut through. The tube tunnels were bored between 45 ft. and 105 ft. below ground but to avoid any potential conflicts with basements or old foundations the tunnels followed, as much as possible the route of highways. Wolmar says that this was shortsighted as it meant harsh gradients and sharp curves which, although no problem for the shield during construction, were to prove operationally difficult.
The City & South London Railway (C&SLR), the first constructed in this way, opened in November 1890. Its most significant problems were that the electricity supply was inadequate for the demand and the locomotives underpowered.
When opened the line had six stations and ran for 3.2 miles (5.1 km) in a pair of tunnels between the City of London and Stockwell, passing under the River Thames. The diameter of the tunnels restricted the size of the trains, and the small carriages with their high-backed seating were nicknamed padded cells. The railway was extended several times north and south, eventually serving 22 stations over a distance of 13.5 miles (21.7 km) from Camden Town in north London to Morden in south London. [56]
The next line after the City & South London to obtain approval was the Central London line in 1891 and that was quickly followed by a series of applications. “No fewer than six tube railways bills were put to Parliament in 1892 and … a joint select committee was appointed to set out some principles for this type of development. … It agreed that tube railways could use the subsoil under public property without having to pay compensation, which made future developments economically feasible.” [3: p144]
Wolmar notes that, “several schemes which were to form the basis of London’s tube network were given the go-ahead following the committee’s deliberations but all struggled to find money, notably the lines that were to become the Bakerloo and the Northern line’s Charing Cross branch. As Hugh Douglas put it, ‘Acts, acts, acts. They were everywhere in the nineties but where was the cash to implement them?… Commercial enterprises offered far greater returns to investors than railways’.” [58: p 139]
Wolmar describes a complex, convoluted process that promoters of underground schemes had to negotiate, often against a backdrop of a Parliament that was predisposed to side with objectors and doubters. There was also a perception that a left leaning London City Council might at any time in the future municipalize the underground network. It was a decade after the C&SLR was opened that the Central was finally opened. [3: p144-145]
The Central Underground Railway (CLR) in London refers to the Central Line, London’s longest and busiest Tube line, known as the “Twopenny Tube” at its 1900 opening due to its flat two-pence fare, connecting Epping in the east to Ealing Broadway and West Ruislip in the west via central London. It was London’s first Tube to serve the city center and featured early innovations like electric lighting and large ventilation fans. “The CLR opened on 30th July 1900 as a cross-London route from Shepherd’s Bush to Bank. It was extremely well used from the outset, partly because of the flat fare of two old pence (2d), which inspired the name the ‘Twopenny Tube’. The fact that it appealed to shoppers as well as commuters was also crucial. In 1908, the line was extended West to Wood Lane to serve the White City exhibition site, and four years later was extended eastwards from Bank to Liverpool Street. In 1920, the line was further extended West to Ealing Broadway.” [59]
However, the first line to receive Parliamentary consent following the partial success of the C&SLR “was to become London’s only underground line that could accommodate full-size main line trains. Such large tunnels had been ruled out on cost grounds but the Great Northern & City from Moorgate to Finsbury Park was conceived as a bypass to King’s Cross for the Great Northern’s suburban trains. … The line was authorised … in 1892.” [3: p146] It took more than a decade to come to fruition, during which time the Great Northern first lost interest in the project and then became quite hostile to it. Ultimately, it was never used for its intended purpose.
Wolmar cites this as another example of the way in which competition failed to produce a worthwhile outcome. He compares London to Paris, “where the first Metro lines were being built as a network of six lines conceived by the local municipal council.” [3: p146] Lack of strategic planning resulted in this line not being extended beyond Moorgate and it became little more than an historical footnote!
Wolmar complains that the private system of commissioning of these underground lines made any strategic plan impossible and prevented any effective linking of the suburban networks North and South of London. [3: p147]
Another scheme which achieved Parliamentary approval was the Waterloo and City (W&CR). It was designed to take LSWR passengers on from Waterloo Station into the City.
Wolmar comments that, “The most innovatory aspect of the Waterloo & City was that the trains were operated by powered motor coaches at each end, a system that was common in the USA, rather than a separate locomotive. There were four, later five, cars, including the two powered coaches which, apart from the section occupied by the motors, could be used by passengers. This was the first use of such electric multiple units in the UK and it meant that the trains were much lighter, and consequently cheaper to operate. Painted in a chocolate and salmon livery, they looked elegant and were so robust that they lasted forty years. Another innovation was sliding doors which gave access to platforms between the coaches that were protected by folding iron gates.” [3: p149]
The W&CR fulfilled a significant need and was well patronised.
These smaller schemes were not the most significant developments resulting from the Parliamentary committee’s work. These were embryonic forms of the Bakerloo line and the Northern (Charing Cross branch) line. But these were slow to come to fruition. The Central, on the other hand made much more rapid progress. Its funding stream was secure and Wolmar explains some of the intricacy integral to it. One significant innovation was to build stations at “the top of slight inclines which meant that trains automatically were slowed down by the gradient as they approached the station and sent faster on their way on departure.” [3: p151]
After it’s opening in 1900, “people flocked to the [Central] line. Within weeks, 100,000 were travelling on the railway daily. On the day of the triumphal return from the Boer War of the City Imperial Volunteers, who made a state entry into the capital, a staggering 229,000 travelled on the Central. During the early 1900s, the annual total was around 45 million annually, nearly 125,000 daily.” [3: p157] In the 21st century, the Central Line is the second busiest tube line after the Northern with 600,000 users daily on weekdays!
It seems that there were a number of reasons for this success. “First, the line was on a transport artery and took a lot of existing business off both buses and the underground lines. … As its directors had feared when they objected to the building of the Central, the Metropolitan, still steam-hauled, lost out heavily to the new line with its modern electric trains. Secondly, the Central had been built to a high standard. Even the Board of Trade inspector reckoned the stations and passageways were ‘commodious’. Access to the trains was by lift and the bigger stations had three or four – there were forty-eight in the whole system. Thirdly, the line benefited from the growing economy which boosted not only employment but travel to the growing number of shops in Oxford Street; when, in 1908, Harry Gordon Selfridge was building his eponymous store, he wanted Bond Street station to be renamed Selfridges and tried to connect it with a passage under Oxford Street, but in the end was unsuccessful in both enterprises. And finally, the supportive press coverage provided free advertising for the line.” [3: p157-158]
Wolmar notes that, “blessed with such good patronage, the Central, uniquely of the majority underground lines, paid good dividends right from the start. There were such large numbers travelling on the line that the operating expenses only represented just over half the revenue. … The company managed to pay a healthy 4% divided in each of its first 5 years and 3% until its merger into the Underground Group shortly before … the First World War.” [3: p159]
At first, the line used locomotives but it was quickly discovered that their size and weight caused significant vibrations at the surface. Management addressed this in very short shrift and ordered replacement motor coaches which were operational by 8th June 1904.E
The early success of the line led to plans for extensions and also spawned plans from competitors. Another Parliamentary joint committee was set up to evaluate the different proposals.
Chapter 8 – The Dodgy American
We have already encountered Charles Tyson Yerkes. More than anyone else, he was responsible for creating the greatest possible integration across the London Underground network. An American businessman, Yerkes left the USA under something of a cloud. Wolmar gives an account of his life before London and then the convoluted story of his acquisition of the Charing Cross, Euston and Hampstead Railway (eventually to become the Charing Cross branch of the Northern Line) and the way in which that purchase led to him being helped to acquire a majority share in the District line in June 1901. He soon also took on two projects which would become the Bakerloo and the Piccadilly lines. The three projects (Charing Cross, Bakerloo and Piccadilly) opened between March 1906 and June 1907. Wolmar tells us that it would be another 61 years before another deep tube line, the Victoria, was dug under central London. [3: p164-170]
Wolmar notes that “between 1903 and 1907, if one includes the Great Northern & City and the Angel to Euston extension of the City & South London, a staggering twenty-six and a half miles of tube railways were built under London. The construction of each of these railways is a complex and intertwined story of Parliamentary bills, heroic efforts to raise capital, opaque financial deals and amazing feats of engineering and construction, most of which passed off with remarkably few mishaps.” [3: p170]
Wolmar goes on to describe the development of the Baker Street & Waterloo Railway (which became known as the Bakerloo line – which was partly developed by another American,Whittaker Wright before his company fell into bankruptcy. Yerkes bought the partially completed line and merged it with his other interests “to create the Underground Electric Railways Company of London Limited (UERL), which was to run much of London’s transport network until the creation of London Transport in 1933. The UERL gained control of the other two big tube projects: the Great Northern, Piccadilly & Brompton Railway, the central section of the future Piccadilly Line; and the Charing Cross, Euston & Hampstead Railway; … as well as the District Line. That left only the Central, the City & South London and the Metropolitan outside UERL control and before the start of the First World War the first two of these would be incorporated into the empire created by Yerkes.” [3: p173]
Yerkes then set about raising finance and was surprisingly successful. It was during a period when large amounts of American capital were moving into Britain. Without US investors, the tube network would never have been built. Investors in Boston and New York bought nigh on 60% of the shares, with the British taking a third and the rest being bought by Dutch investors. [3: p175]
Even so, Yerkes had to resort to an Edwardian version of junk bonds which were sold on the basis that their value was bound to increase. His scheme brought in the remainder of what was required. He raised £18 million to invest in the Underground. (Investors were to live to regret their decisions!)
It is possible, however, that Yerkes had even more devious plans relating to property. It seems that his underground schemes may well have been a device with which to enhance land values. He seems to have invested in land on and around the proposed routes of underground lines. Wolmar mentions the Finchley Road & Folders Green Syndicate as the most likely vehicle through which Yerkes purchased land. [3: p176][15: Volume 2, p82-84]
Once Yerkes had his investment funds he was quick to proceed with work on the Baker Street & Waterloo line. Apart from being required to rebuild his Oxford Circus station, work proceeded without major incident. The first section of the line (Kennington Road (later Labeth North) to Baker Street).was opened in March 1906. The scheme included a “host of innovations – all of US origin – which helped improve both performance and safety:
automatic signalling using track circuits to indicate when a train was in a particular section of the line, a system that became universal throughout busy sections of Britain’s railways;
a train stop system, a mechanical device which stopped trains automatically if they went through a signal at red;
people management systems which could be reversed at different times of the day, aiding flow to and from lifts and platforms.
Electric multiple units were used from the start of operations
Wolmar notes that the London Evening News called the line ‘Baker-loo’ in an early article and by July 1906 ‘Bakerloo’ was adopted officially by the railway – something that The Railway Magazine deplored. [3: p178]
While 37,000 travelled on the line on its opening day, generally patronage was well below what had been anticipated. Even so, it was “soon extended further south to Elephant & Castle. By June 1907 it had reached Edgware Road to the north and had 11 stations. … The next extensions were not built until 1913, when the line opened to Paddington. Other stations followed despite the outbreak of the First World War in August 1914. New tunnels enabled a connection to Willesden in 1915 and over the London & North Western Railway’s lines as far as Watford Junction two years later.” [60]
The next of Yerkes’ lines to open was the Great Northern Piccadilly & Brampton Railway. Work was done to pull a series of smaller proposed schemes into one larger scheme. Yerkes got construction work started some 5 years after approval by Parliament. But only once a major obstacle in the form of J.P. Morgan was dealt with. Wolmar tells the story of how Yerkes outsmarted Morgan, eventually causing Morgan to withdraw from his involvement with the London Underground. [3: p182-185]
Effectively with the field to himself, Yerkes got on with developing the Underground, “melding various sections of the Great Northern and Brompton schemes into what became the Piccadilly.” [3: p185]
Once on site, the work proceeded without major mishap. The line was effectively complete by the autumn of 1906. It was opened on 15th December 1906. Innovations on the Piccadilly included:
the first functioning railway escalator in London which was opened on 4th October 1911 at Earls Court, between the Piccadilly and District line platforms.
the practice of skipping less-used stations in order to reduce running times. This was a short-lived practice used for stations placed very close to each other.
The modern Piccadilly line is a 45.96 mile (73.97 km) long north–west line, with two western branches splitting at Acton Town, serving 53 stations. At the northern end, Cockfosters is a four-platform three-track terminus, and the line runs at surface level to just south of Oakwood. Southgate station is in a tunnel, with tunnel portals to the north and south. Due to the difference in terrain, a viaduct carries the tracks through Arnos Park to Arnos Grove. The line then descends into twin tube tunnels, passing through Wood Green, Finsbury Park and central London. The central area contains stations close to tourist attractions, such as the London Transport Museum, Harrods, Buckingham Palace and Piccadilly Circus. The 9.51 miles (15.3 km) tunnel ends east of Barons Court, where the line continues west, parallel to the District line, to Acton Town. A flying junction, in use since 10th February 1910, separates trains going to the Heathrow branch from the Uxbridge branch. [62]
The Heathrow branch remains at surface level until the eastern approach to Hounslow West station, where it enters a cut-and-cover tunnel. West of Hatton Cross, the line enters tube tunnels to Heathrow Airport and branches to the Terminal 4 loop or to a terminus at Terminal 5. On the Uxbridge branch, the line shares tracks with the District line between Acton Town and south of North Ealing. Traversing terrain with cuttings and embankments, it continues to Uxbridge, sharing tracks with the Metropolitan line between Rayners Lane and Uxbridge.bThe distance between Cockfosters and Uxbridge is 31.6 miles (50.9 km). [62]
A geographically accurate route map of the Piccadilly line. [62]
The third line, the scheme which was Yerkes’ first investment in London, took time to come to fruition. The Charing Cross, Euston & Hampstead line saw a contractor appointed in 1897 but no work had been undertaken before Yerkes took an interest in the line. Wolmar says that, the company was bought by Yerkes in October 1900 for £100,000. A variety of different plans were considered for the line before a final version of the route was determined. Yerkes decided to seek Parliamentary approval for an extension to Golders Green. Gaining local support took some time and tunneling work only began in September 1903. It was completed by December 1905.
Various preconstruction proposals for the line. [63]
Most things went well during construction, a few things are worth noting:
“There were very few problems with tunnelling, except at Euston where watery sand proved an obstacle.” [3: p189]
At the original Charing Cross terminus, lack of coordination between railway companies caused unnecessary difficulty “because the South Eastern Railway, rather than seeing the arrival of the Tube as a great boon, was more concerned with ensuring that there would be no interference to the cab traffic at the front of Charing Cross.” [3: p189] Apartment, this was resolved when the arched roof of Charing Cross Station collapsed on 5th December 1905. A 3 month closure of the station permitted the tube contractors to dig out the forecourt and erect a steel girder structure over the site of the underground station before replacing the station forecourt.
A final alteration to the route of the line was authorised by Parliament. It “allowed for a split into two branches at Camden Town, with the eastern section, originally planned to go only as far as Kentish Town, stretching as far as Archway. On the western side, permission had been obtained to continue another four miles to Hendon and Edgware, but that extension was not built until the 1920s; a plan to reach Watford never materialized. The Hampstead tube would remain as a separate railway to the City & South London until after the Great War and the name ‘Northern line’, by which both routes are now known, was not used until 1937.” [3: p189]
The line was opened on Saturday 22nd June 1907. 127,000 people took advantage of free travel on the line on that day!
Wolmar notes how the sighting of the terminus of the line at Golders Green was an example of the way in which the building of the tube encouraged the expansion of London. [3: p190-191]
Wolmar explains that the timing of the construction of the tube lines was fortuitous as anything beyond a ten year delay and the growing competition for the motor bus would have discussed investors. Yerkes was an absolutely crucial player in the game. Poor to his involvement, all planned schemes had gained Parliamentary approval, but had stalled through the vagaries of the planning system and by financial difficulties. [3: p195]
Wolmar comments that, “The depth of Yerkes’s achievement is made greater, too, by the fact that he built the central parts of the system, which were the most expensive and technically difficult, rather than bringing in a semi-suburban railway to meet the Circle line at the edge of the capital in the hope of raising revenue to continue work. Moreover, Yerkes bravely raised all the funds in one huge deal. What he told the investors to persuade them to stump up the money is unclear, but the poor souls did not make any money.” [3: p196]
Yerkes died on 29th December 1905 at the age of 68. He did not see the fruits of his efforts. His debts ate up most of his intended bequests. His great legacy, the UERL survived with Yerkes’ banker at the helm.
Wolmar tells us that “When the UERL took over two more tube lines just before the Great War, the City & South London section of what became the Northern, and the Central, it would become known as the Combine, controlling all major underground lines apart from the Metropolitan. Thanks to Yerkes, London had its tube system. Melding it into a coherent network was the task of his successors” [3: p196]
Chapter 9 – Beginning to Make Sense
The laissez-faire approach of the establishment to the Underground, with no central government control or direct planning involvement meant that the Underground was effectively “a random collection of uncoordinated lines.” [3: p197] This had to change and “the next two decades of Underground history were more about consolidation and creating a coherent administrative structure following the exciting Edwardian period of development.” [3: p197]
Wolmar notes that, after WW1, there were significant extensions into the London suburbs and the establishment of the London Passenger Transport Board was a triumph. This period did not need pioneers as such but still needed two significant players who would bring about change:
Educated in America, Stanley was determined to become an engineer. It was arranged for him to start working with the Detroit Citizens’ Street Railway Company (a horse tram operator) when he was fourteen years old. His abilities and ambition helped him progress rapidly and he was made general superintendent by the time he was 28 years of age. Albert Stanley joined the Street Railway Department of the Public Service Corporation of New Jersey as Assistant General Manager in 1903. By 1907, he had been appointed General Manager and had built a reputation as one of the leading managers of urban transit in the U.S. He was appointed General Manager of UERL in 1907 and Managing Director in 1910. [68]
Frank Pick was born on 23rd November 1878 in Lincolnshire, into a devout Quaker family. From 1897, he worked for a York solicitor. He joined the UERL at a junior managerial level in 1906 and eventually became the chief executive of London Transport.
In 1902, Pick earned an honours degree in Law from the University of London. However, that same year he decided on a dramatic career change by joining the Traffic Statistics Office of the North Eastern Railway Company (NERC) under general manager Sir George Gibb. In 1907, Pick was put in charge of publicity. He effectively created this job for himself since, at that time, separate publicity and design departments did not exist. It was in this role that his talents became evident. He changed the look of the new underground system. Pick eliminated the clutter from stations where, until then, commercial advertising could be displayed anywhere. He designated far larger areas for essential Underground signage, including route maps and station names. It was Pick who developed the Roundel.
The Underground Roundel: designed by the publicity department which was managed by Frank Pick. He commissioned the calligrapher Edward Johnston to design a company typeface and by 1917 the proportions of the roundel had been reworked to suit the new lettering and incorporate the Underground logotype. The solid red disc became a circle, and the new symbol was registered as a trademark. [68][69]
George Gibb was managing director of the UREL and appointed both Stanley and Pick as employees before WW1.
Before moving on to Pick and Stanley’s era, we need to consider the period before WW1.
Together with Speyer the UERL chairman and banker, Gibb managed to persuade shareholders that bankruptcy of the network was inevitable unless they agreed to a financial restructuring. They managed to convert £7 million worth of junk bonds (which Yerkes had promised to redeem) into long-term debt, redeemable in 1933 and 1948. [3: p200] (By a strange coincidence, these years were momentous in the future of London’s transport system: the creation of London Transport and it’s nationalisation.)
By the time of the debt rescheduling, Gibb and Speyer were working to reduce costs and increase revenue. Gibb tried to bring the disparate lines under one management. Shareholders resisted this plan. It would be 1910 with Stanley in charge that saw Gibb’s plan come to fruition.
Increasing income from ticket sales would not have occurred without abandoning the flat fare policy in place under Yerkes’ tenure. There was even an attempt in 1907 to harmonise fare policies across the majority of London’s transport undertakings, bus and tram operators were only involved in discussions for a short period before withdrawing. The Underground operators formed a joint committee to generate cooperation rather than competition. This resulted in the creation of: a joint booking system; illuminated ‘UndergrounD’ signs at stations; joint promotional literature; the Roundel (station names shown on a bar across a red circle); next lift indicators; line diagrams inside trains; coordination of lift departures with train arrivals; timetabling trains to run at regular intervals; strip tickets (carnets) which were later dropped and not revived until the late 1990s. (These allowed regular passengers to buy a strip of half a dozen tickets at a small discount, enabling them to avoid the rush hour queues.)
Stanley was instrumental in these endeavours and devoted much time to reducing journey times and delays, and increasing train frequencies. Wolmar says that on the District line “he managed to increase the number of trains from a maximum of twenty-four per hour in 1907 to an amazing forty per hour i.e. just ninety seconds apart by the end of 1911, rather more than today’s maximum of thirty per hour, albeit today’s trains are longer.” [3: p204]
A system of express services was introduced on the Hampstead branch with some trains not stopping between Golders Green and Euston. A system of alternate trains stopping at every other station reduced travel time between termini to 28 minutes. Frequency on tube lines was increased. The Bakerloo ran 34/hour and the Hampstead (South of Camden Town) ran 42/hour. A host of changes on UERL lines meant that the Metropolitan had to respond by increasing services and reducing journey times.
Perhaps the most interesting individual change on the Metropolitan was the introduction of Pullman services. “Two coaches, Mayflower and Galatea (named after the two yachts which competed in the 1886 America’s Cup), were each fitted with nineteen upholstered armchairs at which meals were served. The 8.30 a.m. from Aylesbury reached Liverpool Street at 9.57, suggesting that those who could afford such luxury did not have to be in the office as early as their underlings, who would have started at least an hour before that. People who had been to see a play in London could enjoy a late dinner on the theatre special which left Baker Street at 11.35 p.m.” [3: p205]
Stanley’s agenda was always to unify and integrate all of London’s transport. “Early in 1912, he took a giant step towards that goal by gaining control of the largest bus company, the London General Omnibus Company. … This acquisition not only allowed Stanley to integrate the services in such a way that direct competition against his … underground lines was reduced, but also ensured that he could weaken the remaining three lines outside of his control by using buses to run against them. … After the merger, … the hidden subsidy from buses underpinned the economics of London’s transport system and protected the much weaker finances of the Underground network.” [3: p207]
The result was that on 1st January 1913, the Central and the City & South London became part of Stanley’s empire. The Metropolitan remained independent but took over the Great Northern & City. The Waterloo & City remained in LSWR ownership and thrived.
An effect of the acquisition of the road transport network which was mentioned in passing by Wolmar (and noted above) was the way in which bus and tram network could be adapted to serve as a feeder network for the Underground. The image below shows how these feeder services were advertised.
During the immediate pre-war period, there were several improvements and short extensions to improve connectivity. For example, in November 1912, work to connect the two Oxford Circus stations below the surface.
One major pre-war development was to the Bakerloo line which, having reached Paddington, was extended further outwards. Wolmar says that, “this is the first example of a tube line expanding far out into the open air in order to generate traffic and was to become a model that was later widely adopted, creating a dual role for London’s tube railways as an underground system in the centre and a suburban one outside. Outside the centre, construction, which was mostly on the surface, was, of course, much cheaper and the tube lines were in many respects following in the path of their sub-surface predecessors.” [3: p210]
The District was able to offer day trips to the seaside. A service ran “from Ealing to Southend and included a stop at Barking to change from an electric to a steam locomotive. These day trips to the seaside stimulated the opening of resort cafés which were entirely dependent on this trade.” [3: p210]
Progress was interrupted by WW1. Stanley had negotiated a deal with the LNWR to link underground lines to the LNWR at Watford, and for the LNWR to use technology compatible with the Underground. Work on the Bakerloo line was deemed permitted activity in the war years. By May 1915, Bakerloo trains were running to Willesden and by 1917 to Watford.
Chapter 10 – The Underground in the First World War
Wolmar collates a series of facts and incidents relating to the Underground during WW1:
There were thirty-one bombing attacks on London by Zeppelins or aircraft during the war and a total of 4,250,000 people sought protection on the Underground;
On 17th February 1918, 300,000 crowded onto the system, well above its official capacity;
The greatest social impact of the war on the Underground was the employment of women for the first time – women were essential in keeping the network running, but were not permitted to be drivers or guards on the trains;
The disused platform at Aldwych was sealed off, and in September 1917 over 300 pictures from the National Gallery, about one tenth of the collection were housed there until December 1918;
The miniature post office railway was used to store parts of the collections of the Tate, the National Portrait Gallery, and the Public Records Office.
A spare Underground tunnel in South Kensington was used by the Victoria & Albert Museum and Buckingham Palace.
Wolmar is clear that the Underground was not a primary target for the bombing. It was more affected by the authorities’ decision to suspend all underground and main line traffic during raids than by any consequent damage.
During the war, patronage of the Underground increased “The growth continued throughout the war and by 1917 was causing such overcrowding on the tube system that it engendered widespread criticism in the press and even Parliament. The limitations of the technology as originally designed were beginning to be felt. The attendant-operated lifts were slow and there was a shortage of rolling stock, exacerbated by the difficulty of getting spares during the war, which meant many trains were shorter than normal. … Despite all the problems, overall use of the Underground increased by two thirds during the course of the war, and by the end of the conflict half of all passenger journeys in the capital were on the Underground system. ” [3: p220]
Chapter 11 – Reaching Out
Wolmar states: “The war … marked the end of the pretence that the Underground could be a solely private enterprise; all future work would have a public component in its funding.” [3: p222]
Stanley returned to the Underground after two years in government during the War and became Lord Ashfield of Southwell in the 1920 New Year’s Honours list. Wolmar believes that “the Underground would not have developed so comprehensively and extensively over the next two decades,” [3: p223] without him at the helm.
With the Bakerloo extension completed during the War, the next project was to convert a freight only extension of the Central, which served Ealing Broadway, to passenger use – electrification and the construction of intermediate stations was required. Services on the line were inaugurated on 3rd August 1920. A series of other extensions were mooted:
Golders Green to Edgware on the Hampstead railway;
Shepherd’s Bush to Gunnersbury on the Central (not built);
Extending the District to Sutton (not built);
Linking Highgate with Muswell Hill (not built);
Extending the Piccadilly beyond Hammersmith
With the post war boom turning to recession and with close to 2 million unemployed by 1921, the government brought in legislation (the Trade Facilities Act) to encourage public works that would relieve unemployment through Treasury guarantees. Lord Ashfield put forward a £5 million scheme which included the Hampstead scheme, 250 new carriages, and the linking of the Hampstead and the City & South London to form the Northern Line.
Wolmar says that “the extension to Edgware marked a new departure for the tube railways, the first journey deep into the countryside without an existing main line railway to run alongside, in contrast to the Bakerloo’s line to Watford which ran beside the London & North Western. At last Ashfield was beginning to achieve his ambition of enabling London to grow by creating lines which stimulated development.” [3: p224] In parallel, because he had ownership of many tram and bus routes, Ashfield was able to start what would come to be known as an ‘integrated transport system’.
By this time, Pick was now assistant managing director of the company and engaged the architect, S.A. Heaps [65] to develop a new type of suburban station for the Edgware extension which opened in the summer of 1924. At that time, Edgware was a village with a population of about 1,000 and had a train every 10 minutes which took only 30 minutes to reach the West End! Rapid population growth was to be expected.
Meanwhile, the line South to Morden was opened on 13th September 1926. That opening marked the end of the first post-war Underground expansion programme funded on cheap government money. Wolmar says that this was the first of three times that the Underground benefitted from government measures that encouraged expansion. Rather than being about a commitment to a cheap and efficient transport system, the schemes were all aimed at dealing with unemployment. [3: p228]
The Underground set up what may have been the first ‘park and ride’ scheme. Wolmar talks of an extensive network of single-decker buses from places like Cheam, Sutton, Mitcham and Banstead to take passengers to Morden station. The Company also built a large shed close to the station for commuters to park bicycles and cars.
The Piccadilly was also extended between the wars – Finsbury Park out towards Hertford.
The transport interchange at Finsbury Park was a bottleneck with two railways terminating there. Campaigning started as early as 1919 for an extension to Hertford. Until the mid-1920s this was resisted by the GNR and its successor the LNER as a threat to its suburban passenger traffic, but mounting pressure finally forced the LNER to relinquish its veto and lift its objections to the Underground making an extension. [70]
But there was no money to build an extension. While maintaining this position, Pick and Ashfield bought properties along the line of the proposed route. A recession in the 1920s was at its height in July 1929 when the new Labour government brought in the Development (Loan Guarantees and Grants) Act which guaranteed the payment of interest on capital raised for major works and making the interest paid on a loan over its first fifteen years into a grant. [3: p230-231]
With financial support from the government, the Underground began construction of an extension of the Piccadilly line northwards to Cockfosters and the first section, to Arnos Grove, opened on 19th September 1932. The route to Cockfosters was opened fully on 31st July 1933. [70][71] Cockfosters remains the northern terminus of the Piccadilly Line in the 21st century.
The northern extension of the Piccadilly Line. [72]
The other end of the Piccadilly Line has two branches, one serves Heathrow and the other, Uxbridge. The story of this extension of the Piccadilly Line is relatively complex. “The Metropolitan Railway (Harrow and Uxbridge Railway) constructed the line between Harrow on the Hill and Uxbridge and commenced services on 4th July 1904 with, initially, Ruislip being the only intermediate stop. At first, services were operated by steam trains, but track electrification was completed in the subsequent months and electric trains began operating on 1st January 1905.” [73]
“Progressive development in the north Middlesex area over the next two decades led to the gradual opening of additional stations along the Uxbridge branch to encourage the growth of new residential areas. Rayners Lane opened as Rayners Lane Halt on 26th May 1906. … On 1st March 1910, an extension of the District line was opened from South Harrow to connect with the Metropolitan Railway at Rayners Lane junction east of the station enabling District line trains to serve stations between Rayners Lane and Uxbridge from that date. On 23rd October 1933, District line services were replaced by Piccadilly line trains.” [73][74]
“The expansion of the underground in the first 30 or so years of the 20th century helped spur a [major] suburban boom. Improved transport links allowed people to travel more easily for work and live further away from the centre of London. Property developers built numerous speculative estates around the newly built stations, and other buildings followed, for leisure, education and other needs.” [67] The next few images are illustrations of developments close to Edgware Station at the end of the Northern Line.
Wolmar quotes an example of the kind of profits available to those who invested in land close to Underground stations later in his book: A developer called George Cross “bought seventy acres of farmland in Edgware for just £12,250 and had made a profit of nearly five times that amount within six years.” [3: p255]
Meanwhile, Wolmar tells us, “the Piccadilly’s extensions transformed the districts they served even more rapidly than [other] lines because the transport and economic pre-conditions happened to be just right. By the time they opened, the London Passenger Transport Board (which almost immediately became known as London Transport or LT) had been created and its control of buses and trams ensured the provision of a more coherent and comprehensive network of other transport services linking into the Underground stations.”[3: p232-233]
The gradual climb out of the Depression came at just the right time to enhance suburban growth. With house prices low, the early 1930s saw a housing boom which peaked in 1934.
Around the station at Rayners Lane hundreds of new homes were built including an estate called Harrow Garden Village. Other stations saw similar rapid growth in their immediate areas. “Rayners Lane, which had been a sleepy Metropolitan station with just sixty daily users in 1930, became a big interchange with 11,000 people using it every day a mere seven years later.” [3: p234]
In central London significant changes were taking place. Wolmar notes that “several central London stations had been transformed from modest little entrances, often with poor transfer arrangements between lines, to magnificent modern interchanges. The most ambitious was at Piccadilly Circus, where the Piccadilly and the Bakerloo intersect. Opened in 1928, this was designed by Holden, who created a huge circular tiled hall underneath the roundabout.” [3: p234]
An exploded view of the underground at Piccadilly Circus. As originally built it had a surface booking hall. The development of traffic before and after World War I meant that the need for improved station facilities was acute – in 1907, 1.5 million passengers used the station, by 1922 it had grown to 18 million passengers!
Chapter 12 – Metroland, The Suburban Paradox
As Wolmar describes it, the idea, or concept sold to the public and which quickly became known as ‘Metroland’, was misleading. Advertising encouraged people to move out of the central core of London into a rural idyll which could only be destroyed by the building of estates of homes to accommodate the movement of the population. Wolmar says that while the population of central London declined by around 500,000 between 1901 and 1937, that of the suburbs grew by 2.5 million and the population of Greater London reached 8 million. [3: p245]
A sketch map of the Metropolitan Railway shared by Ian Goldsworthy on the Metropolitan and Great Central Railways, and Metroland Facebook Group on 16th January 2026. [79]
The housing boom intended by the Metropolitan was to become a major social migration from inner London and elsewhere to these rapidly developing suburbs:
Local Councils took advantage of government support to build large, relatively good quality, housing estates. Essentially the programme started in 1920 reached a peak in 1927. [3: p246]
The Metropolitan Line encouraged development on significant tracts of land which it had purchased as part of its expansion. The first was Cecil Park in Pinner. [3: p239]
Other landowners undertook developments encouraged by Bonar’s Law (1923) which offered house-builders a 15% subsidy on house-building costs. [3: p237, p246]
The Wembley exhibition of 1924 and 1925 was a catalyst for developments Northwest of central London which included not only homes but industrial development too. [3: p243-245, p247]
Wolmar mentions, too, the growth of building society savings accounts which left those building societies with money to invest in mortgages and which, as a result, saw deposits for first-time buyers drop from 20% to 5%. [3: p246-247]
The pressure of rapid development brought growing concern that London “might destroy itself by becoming too large.” [3: p254] “Watching the growth of Metroland and other London suburbs, [Pick] began to be concerned.” [3: p253] He began to support an idea that would be one known as “Greenbelt”, an idea that gained currency in the 1930s and which would become the basis of planning policies for London after WW2.
Chapter 13 – The Perfect Organization?
London Transport (LT)(London Passenger Transport Board) was formed under a Labour government in 1933. Wolmar says that this “was the first example of how a public body could be invested with commercial as well as social responsibilities, and carry out both aspects successfully.” [3: p258]
Wolmar continues: “London Transport was the right solution at the right moment, coming at a time when the Depression had alerted governments around the world to the limits of the free market. It represented the apogee of a type of confident public administration run by people imbued with a strong ethos of service to the public and with a reputation that any state organization today would envy. Its birth was a result of the vision and socialist drive of [Herbert] Morrison [as transport minister], but its success during the years leading up to the Second World War was only made possible by the brilliance of its two … leaders, Ashfield and Pick, who became LT’s first chairman and chief executive respectively.” [3: p258]
Wolmar talks of Ashfield and Pick’s working relationships as a “fortuitous and fruitful partnership whose legacy would survive well beyond both men.” [3: p258]
Morrison’s vision of an integrated public transport system for London was shared by Ashfield with one substantial difference. Ashfield was unhappy with the whole idea of public ownership of the network. He won the initial battle. The Labour administration of 1923 chose to implement the previous Conservative administration’s Bill. It meant that, rather than a public network, the Ministry of Transport, advised by local interests would regulate routes. The legislation “did nothing to address the fundamental problem of the absence of integration between the various transport concerns. This lack of coordination meant that the trams and the buses were often rivals to the Underground trains, rather than complementary, and passengers still faced all sorts of difficulties in buying tickets which could take them right across London.” [3: p263]
Once the law was in force, Ashfield focussed on gaining control of the London County Council tram network. Morrison opposed Ashfield and ultimately it was Morrison that triumphed albeit with an amended scheme, not a LCC controlled/owned network but a public corporation. …. Very soon, Ashfield was on board, he realised that “the public corporation was not such a bad compromise. It delivered the unified management that was essential and stopped fruitless competition.” [3: p266]
On 1st July 1933, when London transport formally came into being, “Lord Ashfield became Chairman of the Board, while Pick was appointed chief executive.” [3: p269]
In the early 1930s, “Pick had the job of sorting out five railway companies (the suburban services of the four mainline companies had a complex pooling arrangement with LT), fourteen council-owned tramways, three private tram companies, sixty-six omnibus and coach companies and parts of sixty-nine others.” [3: p269-270]
In 1933, “LT employed over 79,500 staff, which rose to almost 100,000 by 1947. LT … encompassed the whole supply chain, … designed its own trains and buses, ran a myriad of support services such as food production and engineering shops and looked after its employees in a benevolent way.” [3: p270]
By 1933, the Underground was in relatively fine fettle. Many of its central stations had been refurbished, its extensions stretched out into the suburbs and were well-used. Overcrowding was still a problem but, with new rolling stock and an enhanced capacity, many people’s perception of the network was favourable. [3: p271] A New Works programme was to start in 1935, passenger numbers were growing (416 million in 1934) and it had a new headquarters building at 55, Broadway. It was the tallest building in London when it opened in 1929.
55, Broadway – the former headquarters of London Underground and London Transport – is a Grade I listed building on Broadway close to St James’s Park in London. Upon completion, it was the tallest office block in London. In 1931, the building earned architect Charles Holden the RIBA London Architecture Medal. In 2020, it was announced that it will be converted to a luxury hotel. [76]
London Transport occupied the building from 1933 to 1984, followed by its successors London Regional Transport from 1984 to 2000, and Transport for London (TfL) from 2000 to 2020. TfL vacated the building in 2020. … The British Transport Commission (BTC) occupied the eighth and ninth floors from its formation at the end of 1947 until late 1953, when with the abolition of the Railway Executive (RE), the BTC moved into the RE’s offices at 222 Marylebone Road. [76]
The New Works Programme of 1935 was “a joint plan with the railways of which the main elements for the Underground were extensions both eastwards and westwards to the Central; taking the Highgate section of the Northern out to East Finchley and, eventually, High Barnet, Bushey and Alexandra Palace (sadly the latter two were dropped); sorting out the bottleneck between Baker Street and Waterloo; reconstructing several stations including King’s Cross; and various other important ancillary works such as improving the power supply. The total estimate of the cost was £40m, later increased to £45m, financed by money raised with government backing, which meant it cost £330,000 less in interest annually than if it had been borrowed at commercial rates.” [3: p272-273]
It is at this point in his narrative that Wolmar focuses on Pick’s responsibility for the design of the Underground’s publicity literature from 1909. Although not qualified in this field he had an eye for design and established the image of London Transport as we know it. “Every poster had a message to convey which was part of a wider purpose, that of convincing the public that the Underground system was an easy, convenient, fast, reliable and safe form of transport. The legacy of London Underground in commissioning art works is unique among transport organizations or, probably, among commercial business of any kind.” [3: p274]
Perhaps the most enduring image of the Underground was introduced by Pick. Its designer, Harry Beck, was a junior draughtsman for the Underground. It took a while for him to persuade Frank Pick and his publicity committee that his novel design of map was worth supporting. Apparently, he may well have been paid no more than five or ten guineas. His original design did not have the bright colours we know today. It was quickly adapted for issue and, after a trial proved successful, 750,000 were printed for free release to the public. Wolmar says: “The cleverness and durability of Beck’s work is demonstrated by the ease with which nine lines has now become fourteen but still retain the same look. Beck’s stroke of genius was to look at the problem of the map from the passengers’ point of view, rather than in the way for that those running the Underground perceived it. The map tidies up the chaos of the city, giving the impression that the city is of a size and design that is comprehensible to both its inhabitants and visitors.” [3: p279] The Beck map, the roundel and the typeface designed at around the same time established the image of London across the world.
By and large, the Underground kept running throughout WW2, as well as providing shelter during bombing raids. [3: p281]
“The extensive use of bomber aircraft against London and major cities was widely anticipated.” [77]
“Air Raid Precautions (ARP) plans were put in place and 1.25 million people were evacuated from London in August and September 1939, with London Transport heavily involved. … The authorities were reluctant to use the Underground network as a source of shelter, partly due to a misconception that doing so could have a detrimental impact on civilian morale and behaviour. … The ferocity of the Blitz changed everything. On 7th September 1940 the first raid of this near continuous period of bombing left 430 dead and 1,600 injured. This was nearly the same number of casualties as sustained in all the raids on London in the First World War. … Thousands flocked to the natural shelter of the Underground network, forcing a rapid change of policy. Deep-level Tube stations again became dual-purpose spaces, with shelterers bedding down for the night on walkways, platforms and even de-electrified tracks.” [77]
Wolmar comments: “Banning people from seeking protection was always going to be a difficult policy to maintain. Had the authorities built a series of deep shelters elsewhere in the capital, perhaps that line could have held. But they had done little to protect their citizens – brick shelters had beenbuilt in the streets but these were clearly vulnerable to a direct hit and were highly unpopular. The tubes, in contrast, were perceived as safe havens. They were easily accessible and provided companionship and warmth, in what appeared to be a completely safe environment away from much of the noise of aircraft and their bombs, which could only occasionally be heard even underground.” [3: p282-283]
Wolmar also writes of a popular resistance movement to the authorities ban on the use of the underground as shelters. That movement sought proper provision of deep level shelters. Promises were made that new deep level shelters would be built.
“Sheltering in stations became better organised, with improved facilities and ticketing to ensure fairness and avoid overcrowding.” [77]
Gradually the provision at underground stations was regularised and rules were made and, to a greater or lesser extent, enforced. Chemical toilets were eventually provided, a plague of mosquitoes was kept under control. Food and drink began to be provided by underground staff. Refreshment trains became standard across the network, medical posts were provided and libraries appeared at some stations. Wolmar notes that some groups of shelters produced their own newsletters. [3: p283-288]
“Conditions remained basic. For many, this became part of wartime daily life. … Over the next eight months until the Blitz ended in May 1941, around 30,000 civilians in London were killed.” [77]
“By the middle of the Blitz, all seventy-nine tube stations were in use as shelters. There were , too, various redundant or partly built sections of the Underground which had been turned over to the shelters with official blessing, such as the disused stations at South Kentish Town, British Museum and City Road, and the unfinished section of lines at Bethnal green,the largest in the capital with accommodation for 5,000, and Highgate.” [3: p289]
Although provisions for sheltering became more organised, the promised deep level shelters were not available for use during the Blitz. London Transport had been commissioned to “construct eight purpose-built deep-level shelters. These were completed by 1942, by which time air raids on London had significantly diminished. … However, in response to the Allied landings on mainland Europe in June 1944, Nazi Germany launched a renewed air offensive. From July 1944, Germany began using V1 flying bombs, and later V2 rockets, particularly against London and the south east. People again sought refuge in Tube stations and the newly opened deep-level shelters. As Allied land forces advanced and took the German launch sites, the raids came to an end in March 1945. In total, these attacks using V-weapons resulted in over 30,000 casualties.” [77]
“The eight deep-level shelters were built under London Underground stations. Ten shelters were originally planned, holding 100,000 people — 10,000 in each shelter. However, the final capacity was around 8,000 people in each shelter, and only eight were completed: at Chancery Lane station on the Central line and Belsize Park, Camden Town, Goodge Street, Stockwell, Clapham North, Clapham Common, and Clapham South on the Northern line. The other two were to be at St Paul’s station on the Central line, which was not built because of concerns about the stability of the buildings above, and at Oval station on the Northern line, not built because of difficult ground conditions encountered as the work started. The working shaft for the shelter at Oval now functions as a ventilation shaft for the station.” [78]
“After the war, the Goodge Street shelter continued to be used by the army until a fire on the night of 21 May 1956, after which the government decided the shelters were not suitable for use by large numbers of the public or military. The Chancery Lane shelter was converted into Kingsway telephone exchange. … It has since been incorporated into a new residential development. … In 1948, the Clapham South shelter was used to house 200 of the first immigrants from the West Indies who had arrived on the HMT Empire Windrush for four weeks until they found their own accommodation. In 1951, it became the Festival Hotel providing cheap stay for visitors to the Festival of Britain, but was closed after the aforementioned fire in the Goodge Street shelter. The shelter was used for archival storage for some years, but is now a Grade II listed building with pre-booked tours arranged by the London Transport Museum via its “Hidden London” programme.” [78]
“All the shelters, with the exception of Chancery Lane, were sold by the government to Transport for London in 1998. The Clapham Common shelter was leased in 2014 by the Zero Carbon Food company, who use the shelter as a hydroponic farm.” [78]
Wolmar notes that during WW2, women were once again employed in large numbers. This time, however, at the end of the war, many who wanted to, kept their jobs.
He concludes his chapter on the war years with these comments: “The war came at just the wrong time for the Underground, not only halting its investment programme but cutting short its heyday. Had Ashfield and Pick been in control for a few more years of peacetime, they might have created such a robust structure that it could not have been dismantled although financially LT was hamstrung by the arrangements created at its birth and would have needed refinancing had the war not intervened. As it was, within a very short time after the conflict ended, the brilliant reign of Ashfield and Pick would be a distant memory and the system would be in seemingly terminal decline.”[3: p294]
Chapter 15 – Decline – and Revival?
The fifty years after the end of WW2 saw chronic underinvestment and overcrowding. Wolmar comments that “the story of the Underground since the war is a sad tale of missed opportunities, displaying a lack of foresight over the need for new lines and based on the mistaken notion that the usage of the system would decline as a result of the near universal ownership of the motor car. “[3: p295]
Wolmar describes the decision to nationalise London Transport as part of the British Transport Commission (BTC) as disastrous. LT became part of an organisation with a national focus. It was just one arm of the BTC which was controlled by the Treasury. “The Underground consistently lost out in competition for investment because … it had benefited from successive government-funded schemes between the wars, and therefore was in a relatively good state, compared with the railways.” [3: p297]It was hamstrung by a requirement to get BTC approval for any expenditure above £50,000. “It was something of a miracle that the partly built extensions of the Central, both eastward (to Epping) and westwards (to West Ruislip), were completed by the end of the 1940s, thanks to a decision made by the board of LT on the orders of the government before its takeover by the BTC. These extensions aside, the system that was lauded as the best in the world started its long, slow process of decline.” [3: p297]
Wolmar talks of very limited investment in the 1950s, of deteriorating income from bus, tram and trolley bus service and if questionable investment decisions. The 1960s saw increased investment but little expenditure on the existing network. The purchase of much needed rolling stock and preparations for the first new tube line in many years (the Victoria Line) both took precedence over vital maintenance of infrastructure.
The main purpose of the Victoria line was “to relieve congestion on the underground system in central London, which had been recognized as far back as the 1930s. The line which was extended to Brixton in 1971 took twenty-three years to build, from its acceptance as a worthwhile project to the opening of the full line at a cost of £90m, rather than the £38m first estimated for a railway that would have gone four miles further south to Croydon.” [3: p302]
Wolmar says that “the Victoria line was pioneering in one key respect: the trains are driven automatically under supervision from a control centre. The person at the front is really a guard with the ability to make emergency stops and take over driving if there is an equipment failure.” [3: p302-303]
When the BTC was abolished in 1963 and the Underground came under direct control from the Ministry there was little improvement. I. 1963, £1.1 million was made available for improvements to the existing network and about £16.5 million was allocated to the Victoria line and new rolling stock. [3: p303]
In 1970, LT was placed under the control of Greater London Council (GLC), by which time it had suffered from three decades of neglect and had accumulated a debt burden of £270 million. GLC successfully argued that the debt should be written off before it would take over the responsibility for running the system.
The GLC put forward an ambitious programme of investment, £275 million over 10 years. But even so, most of this was spent on trains escalators and lifts rather than on overall station refurbishment. The GLC had a short life, only 14 years or so, it swung between Tory and Labour control at each election which meant rapid changes in policy. Central Government was to decide that the local government in the capital was too strong. The matter came to a head when the GLC sought to address the long-term decline in passenger numbers. In 1981, the new Labour administration intended to reduce the decline. “After flirting with the notion of abolishing fares entirely, the councillors imposed a cut of a third and gave their policy the catchy slogan of ‘Fares Fair’. The long-mooted zonal system of fares was introduced, a move that was to prove more significant in the long term because it allowed for Travelcards, now the routine way for Londoners to travel around the capital. The concept had first been proposed by Yerkes but rejected by successive LT managements on the basis that it would lose revenue, but in fact it was to help generate substantial increases in usage.” [3: p306]
The battles which ensued saw Margaret Thatcher abolishing the GLC. The Fares Fair policy had the immediate effect of increasing daily patronage of the Underground from 5.5 to 6.0 million people. A legal challenge to the policy from Bromley Council was taken, eventually, to the House of Lords which ruled against the policy. The GLC doubled the fares, patronage dropped, the Government insisted that a workaround should be found. A reduction was agreed and implemented in May 1983. But Margaret Thatcher buoyed by an election victory implemented a process which would see the GLC abolished in 1986 along with a number of similar councils further North. In doing so, she effectively renationalised LT putting it under the control of London Regional Transport under the control of the Ministry of Transport.
The GLC “helped bring about the Heathrow extension, the Jubilee Line and the long-deferred modernization of lifts and escalators, and … enabled the introduction of Travelcards. Later, in 2003, control of the Underground was handed back to local government in the form of the Mayor of London.” [3: p308]
Under London Regional Transport, still known by the public as London Transport (LT) the engineering functions of LT were separated into ‘client’ and ‘contractor’ and the contractor roles were put out to competition in the private sector.
Tight Treasury control meant that, more often than not, inadequate monies were made available for the investment needs of the Underground. The cycle of bids was annual which meant that no long-term planning was possible.
Wolmar says that, “The worst two disasters on the Underground system, at Moorgate and King’s Cross, occurred during this period when underinvestment and short-term political interference had almost brought the system to its knees. While that may have been a coincidence in the case of Moorgate, it certainly was not at King’s Cross. Apart from these two catastrophes there has been no Underground accident in peacetime in which more than a dozen people have been killed, a remarkable and proud record for the system during its 140 years.” [3: p309]
He describes the events at Moorgate Station as essentially an unlucky event. But those at King’s Cross were a disaster “that illustrated everything that has gone wrong with the system in the previous forty years since nationalisation. Not only was it eminently preventable, there was a certain inevitability about the disaster. At 7.45 p.m. on 18th November 1987 a fire that had been smouldering for half an hour under the Piccadilly line escalator suddenly erupted into a fireball that killed thirty-one people. The accident and subsequent report by Desmond Fennell revealed a shocking state of affairs in the Underground, symptomatic of an organization in decline. There was a long catalogue of reasons why the fire, probably started by a lighted match from a smoker, spread so quickly: junk, much of it inflammable, had been left under the escalator for years; station employees were allowed to ‘bunk off’ work, either simply not turning up or having extended meal breaks, leaving the concourse severely understaffed; fires were treated as an unavoidable routine hazard rather than as preventable; there had been no training in emergency procedures; and the management was sloppy and remote.” [3: p310-311]
After the accident, management systems were reorganised and modernised. There was a welcome rush of investment funding but within a couple of years, money for routine maintenance and refurbishment was in short supply. Most capital spending was allocated to the Jubilee Line Extension.
By 1997, when the Labour Government was elected, there had been a gradual rise in investment but nothing quite like what was to come. John Prescott implemented a complicated scheme of Private Public Partnership (PPP) which was ultimately to “fail but was nevertheless the catalyst for record levels of investment in the Tube. … The … PPP … represented a part privatisation, … but in a manner so complicated that few people were ever able to understand it.” [3: p313]
Prescott was a late convert to PPP, forced into accepting it by Gordon Brown under some duress – either PPP or no money! Prescott chose the money but had wanted to keep the whole network in the public sector. Wolmar says that the proposed PPP arrangements were “a brave, indeed foolhardy experiment. … While it may have been the wrong plan, the PPP was well-founded. … At last there was an agreed plan to refurbish the Underground by government with guaranteed funding which was, in fact, the most ambitious programme in its history, dwarfing the investment programmes of the 1930s.” [3: p316]
He says that the “sums of money involved were gargantuan. The PPP, which was put forward as a £30bn programme to refurbish the Tube over thirty years, was an unprecedented amount of money, if it could be delivered.” [3: p317]The initial PPP program was proposed as a £30bn, thirty-year project. £455 million was spent on lawyers, consultants, and reimbursed bidders’ costs for creating the contracts. The overall extra cost to the taxpayer, compared to a conventional procurement exercise, was estimated to be at least £1 billion.
What were intended to be thirty year contracts with the three companies all failed before 25% of the time (7.5 years) had passed. During the PPP scheme fiasco (and the day after London had been awarded the 2012 Olympics) the Underground suffered its worst ever catastrophe. On 7th July 2005, suicide bombers detonated bombs on the Piccadilly and Circle Lines and on a bus in Tavistock Square. 52 people were killed and more than 700 injured, many severely.
In 2020, the COVID-19 pandemic brought the system to its knees. At the peak of the pandemic passenger numbers fell to less than 10% of normal, and in 2025/2026 numbers are only gradually recovering!
Wolmar comments that since the first edition of his book was published in 2004, “it is no exaggeration to say that London’s rail network has been transformed.” [3: p321]In summary, the transformation of London’s rail network since 2004, includes significant improvements:
The Thameslink extension allows 24 trains per hour between King’s Cross and Blackfriars.
The London Overground and new Underground trains have increased service reliability and capacity in previously underserved areas.
Major stations like London Bridge, St Pancras, King’s Cross, and Blackfriars have been improved.
But future projects like Crossrail 2 face uncertain prospects due to funding issues.
Chapter 16 – London’s New Subterranean Railway
Wolmar concludes his book with a chapter about Crossrail. He was writing in 2020 in the midst of the pandemic and before Crossrail opened as the ‘Elizabeth Line’. It opened to passengers on 24th May 2022. The system was approved in 2007, and construction began in 2009. Originally planned to open in 2018, the project was repeatedly delayed, including for several months as a result of the COVID-19 pandemic. The service is now named after Queen Elizabeth II, who officially opened the line on 17th May 2022 during her Platinum Jubilee year. Passenger services started a week later. [80]
The line runs for more than 70 miles between Reading in the West and Brentwood in the East. London has always struggled to provide effectively for East-West and West-East journeys because of the way the Thames squeezes the available transport routes into narrow corridors.
In comparing various options the Crossrail Study ascertained that an East-West route with tunnels large enough for main line trains had the best business case. The scheme was slow coming to fruition and the Jubilee Line Extension jumped ahead of Crossrail in the queue for rail funding. There was even a possibility that a line between Chelsea and Hackney would get the go ahead rather than Crossrail. Cross rail won out and LT were asked to prepare a detailed design and a Bill for parliament by Autumn 1991.
The Bill entered committee stage at the end of 1991 and failed to pass scrutiny on the basis that funding had not been secured – the Treasury was opposed to the scheme. Wolmar notes that the scheme was not abandoned but, rather, put on life support and the route of the line was safeguarded. [3: p329] LT was keen to ensure that the £157 million spent on design should not be wasted.
With the election of a Labour government in 1997, John Prescott included the Crossrail scheme in his ten year plan, Transport 2010, which was published in 2000. By this time, a London-wide local government had been set under a Mayor and a Greater London Assembly. Crossrail, as a result had a champion with real clout. [3: p329]
A new study, London East-West Study, was commissioned by the Strategic Rail Authority. It analysed three possible routes and found in favour of a route between Paddington and Liverpool Street stations. Money was promised by the Department of Transport (£154 million) to finalise the route and design the scheme.
The project stuttered forwards, further reviews occurred in the first decade of the new millennium. The notion of funding the scheme with private money was quietly dropped, costs had soared to around £10 billion. Income was anticipated from development above the stations on the route, once the line was built. The Mayor was permitted to place a levy a supplementary rate on businesses with a rateable of £55,000 or more (later increased to £70,000).:that levy raised around £3.5 billion towards the cost of the scheme. Larger landowners/businesses made addition contribution (these included BAA, Canary Wharf and Berkley Homes).
Passage through Parliament was a struggle even though many local interests were in favour of the scheme. A large Parliamentary Committee, which was effectively the planning authority, received the scheme and with it a nine volume Environmental Statement, backed by 14,000 pages of technical assessment. The committee also received 457 petitions from objectors ( ranging from house owners to large corporations.
A similar but shorter process followed in the Lords and the Bill was passed in July 2008 with traffic expected on the new line by 2017.
After the 2010 General Election the incoming Chancellor, George Osborne, ordered another review. This shaved about £1.6 billion off the cost, which had, by then, reached £17.8 billion. The opening date was rescheduled for 9th December 2018.
Wolmar says that “there were two major phases to the project: the carving out and construction of the tunnels, and then the fitting out of the railway and the stations. The tunnelling, which was carried out by eight huge tunnel-boring machines, would be by far the biggest such project built under London since the construction of the Jubilee Line Extension and was on a far larger scale than anything previously undertaken, given the size and length of the tunnels. In all there would be twenty-six miles of main tunnels with a further nine miles of passageways, walkways, shafts and connecting corridors.” [3: p333-334]
Remarkably, there were very few delays experienced as a result of the tunneling work, it was the fitting out, the second part, of the project which brought the delays and the December 2018 deadline being missed.
Some of the stations were, by the summer of 2918, notably Whitechapel and Bond Street, far from being finished. When Wolmar was writing in 2020, the costs of the scheme had risen and an outturn cost of around £18 billion was anticipated. [3: p336]
The actual outturn cost was around £18.8 billion. Around 28% higher than the budget, before work started, of £14.8 billion. The main causes were:
Some Tunneling Complexity: Unexpected geological issues, particularly at Bond Street station, slowed progress.
Contract Management: Splitting the work into too many contracts (36) complicated management.
Integration: Underestimating the integration of different project components between 2016-2018.
Delays: The project was delayed by about three and a half years from its original 2018 target, with the central section opening in stages.
Funding had come from a number of sources, including the Government, Transport for London (TfL), the Greater London Authority (GLA), and London businesses.
The notes immediately above have been pulled together from a number of sources. [81]
In the final few pages of his book, Wolmar notes the relatively high levels of funding which were sustained until Labour’s Sadiq Khan became mayor in 2016. After that date support from the Tory government began to dry up. When Wolmar was writing in 2020 the government had decided that Transport for London (TfL) would be required to run all its services – buses, trams, trains and Underground – with no central government subsidy. But, it is also true that politicians regard the Underground as an essential part of making the capital a world-class city. Improvements in the Underground have been part of a city-wide strategy which has seen very significant improvements in train services under the London Overground banner. Thameslink services have also been greatly expanded.
The Northern line has been extended by the provision of a branch from Kensington to Battersea Power Station. The extension formed a continuation of the Northern line’s Charing Cross branch and was built beginning in 2015; it opened in 2021.
Various improvements still remain in the future. Wolmar mentions:
An extension to the Bakerloo line from Elephant & Castle. Ken Livingstone announced in 2006 that Camberwell could be connected to the Underground within 20 years. [3: p340] Three proposals were considered with the one chosen in 2018 being a line out to Lewisham via the Old Kent Road and New Cross Gate. A second phase, through Hayes to Beckenham Junction is envisaged. However, consultations continue and Wolmar suggests the earliest possible opening date will be in the 2030s. [3: p341] TfL are currently attempting to pull together funding from the line as far as Lewisham. [88]
The proposed line from Elephant & Castle to Lewisham. [88]
Crossrail 2 – has its origins in the Chelsea – Hackney line first put forward in the 1970s. Wolmar says that no trains will run at least until the 2030s. In 2020, the estimated cost was about £30 billion, and its future looked very uncertain. Indeed, by the Autumn of 2020, as part of the Transport for London Funding Agreement, a decision was made to pause further work on the design and development of Crossrail 2. The work undertaken so far was fully documented so that the project could restart when the time was right. TfL continues to manage the Crossrail 2 Safeguarding Directions on behalf of the Secretary of State for Transport and continues to work with stakeholders whose developments are affected by the Safeguarding. This is to ensure it can continue to protect the route until such time as the railway can be progressed. [89]
The proposed route of Crossrail 2. [90]
An extension to the Docklands Light Railway is intended. It would run to Thamesmead and serve the Beckton Riverside and Thamesmead redevelopment areas of East London. In November 2025, the HM Treasury gave approval in the November budget for TfL and the Greater London Authority (GLA) to be loaned money to build the extension. Estimated to cost between £700m and £1.3bn, construction could start in 2027 and the extension could open in the “early 2030s. [91]
TfL have significant future plans for Greater London which also include all modes of non-car transport, too many to list in this overlong article. Plans can be found here. [92]
Wolmar concludes his book by looking back to Charles Pearson’s original vision and claims that with the advent of Crossrail that vision has truly been realised. [3: p342]
Christian Wolmar; The Subterranean Railway: How the London Underground was Built and How it Changed the City Forever (2nd extended Edition); Atlantic Books, 2020. This edition includes a chapter on Crossrail.
Neil Parkhouse; British Railway History in Colour Volume 6: Cheltenham and the Cotswold Lines; Lightmoor Press, Lydney, Gloucestershire, 2025.
“The North London Railway (NLR) company had lines connecting the northern suburbs of London with the Port of London further east. The main east to west route is now part of London Overground’s North London Line. Other NLR lines fell into disuse but were later revived as part of the Docklands Light Railway, and London Overground’s East London Line. The company was originally called the East and West India Docks and Birmingham Junction Railway (E&WID&BJR) from its start in 1850, until 1853.” [22] It is not surprising that the company needed its new name in 1853!
The Great Eastern Railway (GER) was a pre-grouping British railway company, whose main line linked London Liverpool Street to Norwich and which had other lines through East Anglia. It was formed in 1862 through the merger of the Eastern Counties Railway, the Eastern Union Railway, and others. The company was grouped into the London and North Eastern Railway in 1923. [24]
The East London Railway, now the core of the London Overground’s East London Line, is a historic north-south railway using the Thames Tunnel, connecting East London & Docklands to South London, famous for its early use of the Brunel tunnel and later integration into the Tube before becoming part of London’s Overground rail network with extensions to Highbury & Islington, New Cross, Crystal Palace, and Clapham Junction. “The East London Railway (ELR) was created by the East London Railway Company, a consortium of six railway companies: the Great Eastern Railway (GER), the London, Brighton and South Coast Railway (LB&SCR), the London, Chatham and Dover Railway (LCDR), the South Eastern Railway (SER), the Metropolitan Railway, and the District Railway. The latter two operated what are now the Metropolitan, Circle, District and Hammersmith & City lines of the London Underground. The incorporation of the East London Railway took place on 26th May 1865 with the aim of providing a link between the LB&SCR, GER and SER lines.” [26]
Wolmar notes that this was a problem which was to be repeated over a century later when Railtrack was privatised in 1996 and found itself under an obligation to allow trains onto its network without the capacity to cope with them! However, it seems that this might be an over simplification of the issues involved in privatisation. Access magazine’s analysis is that “the atomization of BR created administrative chaos. When BR was dismantled, a unified, military-style command structure was replaced by a heinously complex web of contractual relationships between almost a hundred pieces of the old BR plus numerous subcontractors. Because of the uncertainty of the relationships, contracts attempted to account for all possible future situations with an elaborate system of payments and penalties. This led to an adversarial system in which the parties were frequently sniping at each other, pointing fingers, and demanding compensation.” [29]
“Functions that cried out for integration were separated. First, although Railtrack owned the track, it did not own the maintenance companies. And the maintenance companies did not own the companies that actually did the repair work. Without an effective in-house engineering department, Railtrack was in no position to supervise the contractors. Thus, despite Railtrack’s nominal control, the maintenance and repair companies actually called the shots.” [29]
“Another problem was caused by the separation of train operations from the track. Because Railtrack was required to compensate the TOCs for delays, the companies endlessly squabbled over who was to blame for them. The system for attributing fault was mind-numbingly complex and onerous, involving 1,900 checkpoints, 204 predefined delay causes, and 1,300 delay-attribution points. Railtrack employed fifty people just to account for delays in the Southern region alone. Bitter disputes and legal action ensued.” [29]
“This leads to another explanation for the failure of Railtrack: perverse incentives. The TOCs had an incentive to increase service in response to the boom in traffic in the late 1990s. But since ninety percent of the access fees Railtrack charged to the TOCs were fixed, Railtrack had little interest in approving new train paths or adding additional capacity. Thus, to the consternation of the TOCs, investment in the system languished.” [29]
“The problems were not limited to the private side of the equation. The role the government played in the (mis)management of the railways was considerable. A confused tangle of organizations with overlapping responsibilities oversaw the railways, including the Office of Passenger Rail Franchising, the Office of the Rail Regulator, Her Majesty’s Railway Inspectorate, the British Railway Board, the Rail Passengers Council, and the Transport Secretary. Although these were supposed to complement each other, they produced duplication, paralysis, and turf battles.” [29]
“Labour, which assumed power in 1997, fared little better. It took virtually all of its first term to pass any significant legislation. Eventually, Labor How 5created yet another body, the Strategic Rail Authority, to tackle the ills of the industry. But this simply added one more layer of bureaucracy.” [29]
“Plain old bad management also played a part in privatization’s demise. Many of the people in important positions had little or no experience with railways. Railtrack CEO Gerald Corbett and his successor Steven Marshall had been executives at a food and drink company prior to their association with Railtrack. Old railway hands felt their advice was ignored by newcomers who did not understand the business and had little interest in learning.” [29]
“In the opinion of many, the culture of the railways, carefully nurtured under BR, was destroyed. Employees had to cope with the dismemberment of their beloved paternal organization. Widespread staff cuts bred a climate of fear and the need for many to work excessive hours. A new emphasis on cost-cutting frustrated employees, who felt the economies were irrationally conceived and operationally damaging. A great intangible— pride in their jobs and pride in the railway—deteriorated, and there was considerable nostalgia for the old organization and the sense of belonging it fostered.” [29]
“Culture change, after all, was an explicit goal of privatization. In the view of privatization’s supporters, the railways were a bastion of union militancy and poor public-sector work habits. Although there may be a degree of truth in this perception of the industry’s ills, it cannot be denied that morale under the privatized regime suffered.” [29]
“Railtrack alienated its employees, its investors, its passengers, its regulators, and just about everyone else. Its demise was thus greeted with considerable relief across Britain—it was, opined the Economist, like ‘putting down a very sick dog’.” [29]
Watkins, speaking in the Commons, asked the House “to sanction no new legislation, but merely to enable a number of private individuals, who had done the public service by devoting their time and money to an attempt to solve the question, to provide, as a joint stock company, further money, with a view of solving the question whether the Tunnel could be made or not. …. He … quoted [an article] from The Times of that morning [which] spoke very doubtfully as to whether the continuity of the stratum through which the Tunnel would have to pass was an ascertained fact. Now, the measures were in the same position and of the same thickness on both sides of the Channel, and if any doubt existed as to the reasonable proof of continuity, he thought that would be an argument for allowing the experiments to proceed. At the same time, he was bound to say that the French Tunnel Company, who held a Charter under the French Government, had made about 11,000 soundings of the Channel, and if there had been any fault or any breach of continuity between the two sides of the Channel, the geological presumption was that that fault would have been discovered.” [36]
After Watkin’s scheme failed, several more tunnel bills, in “the period to 1895, … were introduced in Parliament, but all failed to surmount military objections. … Despite British equivocation the French remained enthusiastic about the prospects, none more so than Albert Sartiaux, General Manager of the Nord Railway, who drew up a tunnel scheme in 1904‑6. This attempted to counter military objections by incorporating a viaduct close to the tunnel mouth, which could be disabled in the event of a war. However, attempts to progress the scheme on the British side, in 1907 and 1914, proved unsuccessful. Military and naval objections, together with insular sentiment, remained paramount.” [34]
“With the inter-departmental committee unable to make a firm decision one way or the other, the matter passed to a special ‘scientific’ committee appointed by the War Office. Led by Major-General Sir Archibald Alison, it was asked to report on the military safeguards that would be needed to render the tunnel useless to an enemy power. Unsurprisingly, this committee found in May 1882 that neither Watkin’s project, nor its rival scheme, complied with the suggested requirements. In the process, it became clear that the number of influential tunnel opponents exceeded the number of supporters, the former including the Chancellor of the Exchequer and the Governor of the Bank of England. The public debate culminated in the appointment of a joint parliamentary select committee in 1883, chaired by Lord Lansdowne. Lansdowne was in fact a tunnel supporter, but he was unable to carry his committee with him, and it eventually voted 6‑4 to withhold parliamentary approval of the scheme. The intensification of Anglo-German rivalry then made success less likely.” [34]
“The large sums required, the long gestation period before revenue streams, and often uncertain returns, … historically deterred the private sector from participating in many major transport investments without some form of public sector support.” [34]
Clive Foxell; The Story of the Met and GC Joint Line; Clive Foxell, 2000.
“The City and South London Railway (C&SLR) was the first successful deep-level underground “tube” railway in the world, and the first major railway to use electric traction. The railway was originally intended for cable-hauled trains, but owing to the bankruptcy of the cable contractor during construction, a system of electric traction using electric locomotives – an experimental technology at the time – was chosen instead.” [40]
“The Central line is a London Underground line that runs between West Ruislip or Ealing Broadway in the West, and Epping or Woodford via Hainault in the north-east, via the West End, the City, and the East End. Printed in red on the Tube map, the line serves 49 stations over 46 miles (74 km), making it the network’s longest line. It is one of only two lines on the Underground network to cross the Greater London boundary, the other being the Metropolitan line. One of London’s deep-level railways traversing narrow tunnels, Central line trains are smaller than those on British main lines.” [42]
Starting in 1910, plans were considered for an underground system, but were interrupted by the First World War, which also necessitated closing the Stadtbahn to civilian use. After the war, the economic situation of a smaller and poorer country ruled out continuing with the plan. However, starting on 26th May 1924 the Stadtbahn was electrified, something that many had called for before the war, and from autumn 1925 it was integrated with the tramway rather than the railways. The frequency of trains tripled. Plans for a U-Bahn dating from 1912–14 were revived and discussions took place in 1929, but the Great Depression necessitated abandoning planning. Both in 1937 and after the Anschluß, when Vienna became the largest city by surface area in Nazi Germany, ambitious plans for a U-Bahn, and a new central railway station, were discussed. Test tunnelling took place, but these plans, too, had to be shelved when the Second World War broke out. … Severe war damage caused the Stadtbahn system to be suspended in some areas until 27th May 1945. The redevelopment of stations took until the 1950s. Meanwhile, Vienna was occupied by the four allied powers until 1955, and in 1946 had returned three quarters of the pre-war expanded Greater Vienna to the state of Lower Austria. Two proposals for U-Bahn systems were nonetheless presented, in 1953 and 1954. Increasing car traffic led to cutbacks in the S-Bahn network that were partially made up for by buses. The U-Bahn issue was also politicised: in the 1954 and 1959 city council elections, the conservative Austrian People’s Party championed construction of a U-Bahn, but the more powerful Social Democratic Party of Austria campaigned for putting housing first. The city council repeatedly rejected the U-Bahn idea in the late 1950s and early 1960s. Extensions of the Stadtbahn system had always been discussed as an alternative to building a new U-Bahn. But it was not until the late 1960s, when the Stadtbahn and the Schnellbahn were no longer able to adequately serve the ever-increasing public traffic, that the decision to build a new network was taken. On 26th January 1968, the city council voted to begin construction of a 30 km (19 mile) basic network (Grundnetz). Construction began on 3rd November 1969 on and under Karlsplatz, where three lines of the basic network were to meet, and where central control of the U-Bahn was located. Test operation began on 8th May 1976 on line U4, and the first newly constructed (underground) stretch of line opened on 25th February 1978 (five stations on U1 between Reumannplatz and Karlsplatz). … Since that time the network has been gradually developing. [47]
Stanley A. Heaps (1880–1962) was an English architect responsible for the design of a number of stations on the London Underground system as well as the design of train depots and bus and trolleybus garages for London Transport. [66]
These sources include: the House of Commons Library, [82] the New Civil Engineer, [83] Wikipedia, [84] the office of the Mayor of London, [85] and the BBC. [86]