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Spoke 19: The Biblewheel and The 19th Century
(Go back to main Menu)The Locomotive and Mark The Running Gospel
[Psalm 5:3 KJV]
My voice shalt thou hear in the morning, O LORD; in the morning will I direct [my prayer] unto thee, and will look up.
[Psalm 27:7 KJV]
Hear, O LORD, [when] I cry with my voice: have mercy also upon me, and answer me.
[Psalm 28:2 KJV]
Hear the voice of my supplications, when I cry unto thee, when I lift up my hands toward thy holy oracle.
[Psalm 55:17 KJV]
Evening, and morning, and at noon, will I pray, and cry aloud: and he shall hear my voice.
[Psalm 64:1 KJV]
[[To the chief Musician, A Psalm of David.]] Hear my voice, O God, in my prayer: preserve my life from fear of the enemy.
[Psalm 119:149 KJV]
Hear my voice according unto thy lovingkindness: O LORD, quicken me according to thy judgment.
[Psalm 130:2 KJV]
Lord, hear my voice: let thine ears be attentive to the voice of my supplications.
[Psalm 140:6 KJV]
I said unto the LORD, Thou [art] my God: hear the voice of my supplications, O LORD.
The first full-scale working railway steam locomotive was built by Richard Trevithick in 1802. It was constructed for the Coalbrookdale ironworks in Shropshire in the United Kingdom though no record of it working there has survived.[3] On 21 February 1804, the first recorded steam-hauled railway journey took place as another of Trevithick's locomotives hauled a train from the Penydarren ironworks, in Merthyr Tydfil, to Abercynon in South Wales.[4][5] Accompanied by Andrew Vivian, it ran with mixed success.[6] The design incorporated a number of important innovations including the use of high-pressure steam which reduced the weight of the engine and increased its efficiency.
Locomotive
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A locomotive or engine is a rail transport vehicle that provides the motive power for a train. If a locomotive is capable of carrying a payload, it is usually rather referred to as a multiple unit, motor coach, railcar or power car; the use of these self-propelled vehicles is increasingly common for passenger trains, but rare for freight (see CargoSprinter and Iron Highway).
Traditionally, locomotives pulled trains from the front. However, push-pull operation has become common, where the train may have a locomotive (or locomotives) at the front, at the rear, or at each end. Most recently railroads have begun adopting DPU or distributed power. The front may have one or two locomotives followed by a mid train locomotive that is controlled remotely from the lead unit.
Etymology[edit]
The word locomotive originates from the Latin loco – "from a place", ablative of locus "place", and the Medieval Latin motivus, "causing motion", and is a shortened form of the term locomotive engine,[1] which was first used in 1814[2] to distinguish between self-propelled and stationary steam engines.
Classifications[edit]
Prior to locomotives, the motive force for railways had been generated by various lower-technology methods such as human power, horse power, gravity or stationary engines that drove cable systems. Few such systems are still in existence today. Locomotives may generate their power from fuel (wood, coal, petroleum or natural gas), or they may take power from an outside source of electricity. It is common to classify locomotives by their source of energy. The common ones include:
Steam[edit]
A steam locomotive is a locomotive whose primary power source is a steam engine. The most common form of steam locomotive also contains a boiler to generate the steam used by the engine. The water in the boiler is heated by burning combustible material – usually coal, wood, or oil – to produce steam. The steam moves reciprocating pistons which are connected to the locomotive's main wheels, known as the "driving wheels". Both fuel and water supplies are carried with the locomotive, either on the locomotive itself, in bunkers and tanks, (this arrangement is known as a "tank locomotive") or pulled behind the locomotive, in tenders, (this arrangement is known as a "tender locomotive").
The first full-scale working railway steam locomotive was built by Richard Trevithick in 1802. It was constructed for the Coalbrookdale ironworks in Shropshire in the United Kingdom though no record of it working there has survived.[3] On 21 February 1804, the first recorded steam-hauled railway journey took place as another of Trevithick's locomotives hauled a train from the Penydarren ironworks, in Merthyr Tydfil, to Abercynon in South Wales.[4][5] Accompanied by Andrew Vivian, it ran with mixed success.[6] The design incorporated a number of important innovations including the use of high-pressure steam which reduced the weight of the engine and increased its efficiency.
In 1812, Matthew Murray's twin-cylinder rack locomotive Salamanca first ran on the edge-railed rack-and-pinion Middleton Railway;[7] this is generally regarded as the first commercially successful locomotive.[8][9] Another well-known early locomotive was Puffing Billy, built 1813–14 by engineer William Hedley for the Wylam Colliery near Newcastle upon Tyne. This locomotive is the oldest preserved, and is on static display in the Science Museum, London. George Stephenson built Locomotion No. 1 for the Stockton and Darlington Railway in the north-east of England, which was the first public steam railway in the world. In 1829, his son Robert built The Rocket in Newcastle upon Tyne. Rocket was entered into, and won, the Rainhill Trials. This success led to the company emerging as the pre-eminent early builder of steam locomotives used on railways in the UK, US and much of Europe.[10] The Liverpool and Manchester Railway, built by Stephenson, opened a year later making exclusive use of steam power for passenger and goods trains.
The steam locomotive remained by far the most common type of locomotive until after World War II.[11] Steam locomotives are less efficient than modern diesel and electric locomotives, and a significantly larger workforce is required to operate and service them.[12] British Rail figures showed that the cost of crewing and fuelling a steam locomotive was about two and a half times larger than the cost of supporting an equivalent diesel locomotive, and the daily mileage they could run was lower.[citation needed] Between about 1950 and 1970, the majority of steam locomotives were retired from commercial service and replaced with electric and diesel-electric locomotives.[13][14] While North America transitioned from steam during the 1950s, and continental Europe by the 1970s, in other parts of the world, the transition happened later. Steam was a familiar technology that used widely-available fuels and in low-wage economies did not suffer as wide a cost disparity. It continued to be used in many countries until the end of the 20th century. By the end of the 20th century, almost the only steam power remaining in regular use around the world was on heritage railways.
Internal combustion[edit]
Internal combustion locomotives use an internal combustion engine, connected to the driving wheels by a transmission. Typically they keep the engine running at a near-constant speed whether the locomotive is stationary or moving. Internal combustion locomotives are categorised by their fuel type and sub-categorised by their transmission type.
Benzene[edit]
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Benzene locomotives have an internal combustion engines that use benzene as fuel.
Kerosene[edit]
Kerosene locomotives use kerosene as the fuel. They were the world's first internal combustion locomotives, preceding diesel and other oil locomotives by some years. The first known kerosene rail vehicle was a draisine built by Gottlieb Daimler in 1887,[15] but this was not technically a locomotive as it carried a payload.
A kerosene locomotive was built in 1894 by the Priestman Brothers of Kingston upon Hull for use on Hull docks. This locomotive was built using a 12 hp double-acting marine type engine, running at 300 rpm, mounted on a 4-wheel wagon chassis. It was only able to haul one loaded wagon at a time, due to its low power output, and was not a great success.[16] The first successful kerosene locomotive was "Lachesis" built by Richard Hornsby & Sons Ltd. and delivered to Woolwich Arsenal railway in 1896. The company built four kerosene locomotives between 1896 and 1903, for use at the Arsenal.
Petrol[edit]
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Petrol locomotives use petrol (gasoline) as their fuel. The first commercially successful petrol locomotive was a petrol-mechanical locomotive built by the Maudslay Motor Company in 1902, for the Deptford Cattle Market in London. It was an 80 hp locomotive using a 3-cylinder vertical petrol engine, with a two speed mechanical gearbox.
Petrol-mechanical[edit]
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The most common type of petrol locomotive are petrol-mechanical locomotives, which use mechanical transmission in the form of gearboxes (sometimes in conjunction with chain drives) to deliver the power output of the engine to the driving wheels, in the same way as a car. The second petrol-mechanical locomotive was built by F.C. Blake of Kew in January 1903 for the Richmond Main Sewerage Board.[17][18][16]
Petrol-electric[edit]
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Petrol-electric locomotives are petrol locomotives which use electric transmission to deliver the power output of the engine to the driving wheels. This avoids the need for gearboxes by converting the rotary mechanical force of the engine into electrical energy by a dynamo, and then powering the wheels by multi-speed electric traction motors. This allows for smoother acceleration, as it avoids the need for gear changes, however is more expensive, heavier, and sometimes bulkier than mechanical transmission.
Naphthalene[edit]
Diesel[edit]
Diesel locomotives are powered by diesel engines. In the early days of Diesel propulsion development, various transmission systems were employed with varying degrees of success, with electric transmission proving to be the most popular.
Diesel-mechanical[edit]
A diesel–mechanical locomotive uses mechanical transmission to transfer power to the wheels. This type of transmission is generally limited to low-powered, low speed shunting (switching) locomotives, lightweight multiple units and self-propelled railcars. The earliest diesel locomotives were diesel-mechanical. In 1906, Rudolf Diesel, Adolf Klose and the steam and diesel engine manufacturer Gebrüder Sulzer founded Diesel-Sulzer-Klose GmbH to manufacture diesel-powered locomotives. The Prussian State Railways ordered a diesel locomotive from the company in 1909. The world's first diesel-powered locomotive (a diesel-mechanical locomotive) was operated in the summer of 1912 on the Winterthur–Romanshorn railway in Switzerland, but was not a commercial success.[19] Small numbers of prototype diesel locomotives were produced in a number of countries through the mid-1920s.
Diesel-electric[edit]
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Diesel–electric locomotives are diesel locomotives using electric transmission. The diesel engine drives either an electrical DC generator (generally, less than 3,000 horsepower (2,200 kW) net for traction), or an electrical AC alternator-rectifier (generally 3,000 horsepower (2,200 kW) net or more for traction), the output of which provides power to the traction motors that drive the locomotive. There is no mechanical connection between the diesel engine and the wheels. The vast majority of diesel locomotives today are diesel-electric.
In 1914, Hermann Lemp, a General Electric electrical engineer, developed and patented a reliable direct current electrical control system (subsequent improvements were also patented by Lemp).[20] Lemp's design used a single lever to control both engine and generator in a coordinated fashion, and was the prototype for all diesel–electric locomotive control. In 1917–18, GE produced three experimental diesel–electric locomotives using Lemp's control design.[21] In 1924, a diesel-electric locomotive (Eel2 original number Юэ 001/Yu-e 001) started operations. It had been designed by a team led by Yury Lomonosov and built 1923–1924 by Maschinenfabrik Esslingen in Germany. It had 5 driving axles (1'E1'). After several test rides, it hauled trains for almost three decades from 1925 to 1954.[22]
Diesel-hydraulic[edit]
Diesel–hydraulic locomotives are diesel locomotives using hydraulic transmission. In this arrangement, they use one or more torque converters, in combination with gears, with a mechanical final drive to convey the power from the diesel engine to the wheels.
The main worldwide user of main-line hydraulic transmissions was the Federal Republic of Germany, with designs including the 1950s DB Class V 200, and the 1960 and 1970s DB V 160 family. British Rail introduced a number of diesel hydraulic designs during it 1955 Modernisation Plan, initially license built versions of German designs. In Spain Renfe Operadora used high power to weight ratio twin engined German designs to haul high speed trains from the 1960s to 1990s. (see RENFE Classes 340, 350, 352, 353, 354).
Hydrostatic drive systems have also been applied to rail use, for example 350 to 750 hp (260 to 560 kW) shunting locomotives by CMI Group (Belgium).[23] Hydrostatic drives are also used in railway maintenance machines such as tampers and rail grinders.[24]
Gas turbine[edit]
A gas turbine locomotive is an internal combustion engine locomotive consisting of a gas turbine. ICE engines require a transmission to power the wheels. The engine must be allowed to continue to run when the locomotive is stopped.
Gas turbine-mechanical locomotives use a mechanical transmission to deliver the power output of gas turbines to the wheels. A gas turbine locomotive was patented in 1861 by Marc Antoine Francois Mennons (British patent no. 1633).[25] There is no evidence that the locomotive was actually built but the design includes the essential features of gas turbine locomotives, including compressor, combustion chamber, turbine and air pre-heater. In 1952, Renault delivered a prototype four-axle 1150 hp gas-turbine-mechanical locomotive fitted with the Pescara "free turbine" gas- and compressed-air producing system, rather than a co-axial multi-stage compressor integral to the turbine. This model was succeeded by a pair of six-axle 2400 hp locomotives with two turbines and Pescara feeds in 1959. Several similar locomotives were built in USSR by Kharkov Locomotive Works.[26]
Gas turbine-electric locomotives, use a gas turbine to drive an electrical generator or alternator which produced electric current powers the traction motor which drive the wheels. In 1939 the Swiss Federal Railways ordered Am 4/6, a GTEL with a 1,620 kW (2,170 hp) of maximum engine power from Brown Boveri. It was completed in 1941, and then underwent testing before entering regular service. The Am 4/6 was the first gas turbine – electric locomotive. British Rail 18000 was built by Brown Boveri and delivered in 1949. British Rail 18100 was built by Metropolitan-Vickers and delivered in 1951. A third locomotive, the British Rail GT3, was constructed in 1961. Union Pacific Railroad ran a large fleet of turbine-powered freight locomotives starting in the 1950s.[27] These were widely used on long-haul routes, and were cost-effective despite their poor fuel economy due to their use of "leftover" fuels from the petroleum industry. At their height the railroad estimated that they powered about 10% of Union Pacific's freight trains, a much wider use than any other example of this class.
A gas turbine offers some advantages over a piston engine. There are few moving parts, decreasing the need for lubrication and potentially reducing maintenance costs, and the power-to-weight ratio is much higher. A turbine of a given power output is also physically smaller than an equally powerful piston engine, allowing a locomotive to be very powerful without being inordinately large. However, a turbine's power output and efficiency both drop dramatically with rotational speed, unlike a piston engine, which has a comparatively flat power curve. This makes GTEL systems useful primarily for long-distance high-speed runs. Additional problems with gas turbine-electric locomotives included that they were very noisy.[28]
Electric[edit]
An electric locomotive is a locomotive powered only by electricity. Electricity is supplied to moving trains with a (nearly) continuous conductor running along the track that usually takes one of three forms: an overhead line, suspended from poles or towers along the track or from structure or tunnel ceilings; a third rail mounted at track level; or an onboard battery. Both overhead wire and third-rail systems usually use the running rails as the return conductor but some systems use a separate fourth rail for this purpose. The type of electrical power used is either direct current (DC) or alternating current (AC).
Various collection methods exist: a trolley pole, which is a long flexible pole that engages the line with a wheel or shoe; a bow collector, which is a frame that holds a long collecting rod against the wire; a pantograph, which is a hinged frame that holds the collecting shoes against the wire in a fixed geometry; or a contact shoe, which is a shoe in contact with the third rail. Of the three, the pantograph method is best suited for high-speed operation.
Electric locomotives almost universally use axle-hung traction motors, with one motor for each powered axle. In this arrangement, one side of the motor housing is supported by plain bearings riding on a ground and polished journal that is integral to the axle. The other side of the housing has a tongue-shaped protuberance that engages a matching slot in the truck (bogie) bolster, its purpose being to act as a torque reaction device, as well as a support. Power transfer from motor to axle is effected by spur gearing, in which a pinion on the motor shaft engages a bull gear on the axle. Both gears are enclosed in a liquid-tight housing containing lubricating oil. The type of service in which the locomotive is used dictates the gear ratio employed. Numerically high ratios are commonly found on freight units, whereas numerically low ratios are typical of passenger engines.
Electricity is typically generated in large and relatively efficient generating stations, transmitted to the railway network and distributed to the trains. Some electric railways have their own dedicated generating stations and transmission lines but most purchase power from an electric utility. The railway usually provides its own distribution lines, switches and transformers.
Electric locomotives usually cost 20% less than diesel locomotives, their maintenance costs are 25-35% lower, and cost up to 50% less to run. [29]
Direct current[edit]
The earliest systems were DC systems. The first electric passenger train was presented by Werner von Siemens at Berlin in 1879. The locomotive was driven by a 2.2 kW, series-wound motor, and the train, consisting of the locomotive and three cars, reached a speed of 13 km/h. During four months, the train carried 90,000 passengers on a 300-metre-long (984 feet) circular track. The electricity (150 V DC) was supplied through a third insulated rail between the tracks. A contact roller was used to collect the electricity. The world's first electric tram line opened in Lichterfelde near Berlin, Germany, in 1881. It was built by Werner von Siemens (see Gross-Lichterfelde Tramway and Berlin Straßenbahn). The Volk's Electric Railway opened in 1883 in Brighton, and is the oldest surviving electric railway. Also in 1883, Mödling and Hinterbrühl Tram opened near Vienna in Austria. It was the first in the world in regular service powered from an overhead line. Five years later, in the U.S. electric trolleys were pioneered in 1888 on the Richmond Union Passenger Railway, using equipment designed by Frank J. Sprague.[30]
The first electrically worked underground line was the City and South London Railway, prompted by a clause in its enabling act prohibiting use of steam power.[31] It opened in 1890, using electric locomotives built by Mather & Platt. Electricity quickly became the power supply of choice for subways, abetted by the Sprague's invention of multiple-unit train control in 1897.
The first use of electrification on a main line was on a four-mile stretch of the Baltimore Belt Line of the Baltimore and Ohio Railroad (B&O) in 1895 connecting the main portion of the B&O to the new line to New York through a series of tunnels around the edges of Baltimore's downtown. Three Bo+Bo units were initially used, at the south end of the electrified section; they coupled onto the locomotive and train and pulled it through the tunnels.[32]
DC was used on earlier systems. These systems were gradually replaced by AC. Today, almost all main-line railways use AC systems. DC systems are confined mostly to urban transit such as metro systems, light rail and trams, where power requirement is less.
Alternating current[edit]
The first practical AC electric locomotive was designed by Charles Brown, then working for Oerlikon, Zürich. In 1891, Brown had demonstrated long-distance power transmission, using three-phase AC, between a hydro-electric plant at Lauffen am Neckar and Frankfurt am Main West, a distance of 280 km. Using experience he had gained while working for Jean Heilmann on steam-electric locomotive designs, Brown observed that three-phase motors had a higher power-to-weight ratio than DC motors and, because of the absence of a commutator, were simpler to manufacture and maintain.[33] However, they were much larger than the DC motors of the time and could not be mounted in underfloor bogies: they could only be carried within locomotive bodies.[34]
In 1894, Hungarian engineer Kálmán Kandó developed a new type 3-phase asynchronous electric drive motors and generators for electric locomotives. Kandó's early 1894 designs were first applied in a short three-phase AC tramway in Evian-les-Bains (France), which was constructed between 1896 and 1898.[35][36][37][38][39] In 1918,[40] Kandó invented and developed the rotary phase converter, enabling electric locomotives to use three-phase motors whilst supplied via a single overhead wire, carrying the simple industrial frequency (50 Hz) single phase AC of the high voltage national networks.[41]
In 1896, Oerlikon installed the first commercial example of the system on the Lugano Tramway. Each 30-tonne locomotive had two 110 kW (150 hp) motors run by three-phase 750 V 40 Hz fed from double overhead lines. Three-phase motors run at constant speed and provide regenerative braking, and are well suited to steeply graded routes, and the first main-line three-phase locomotives were supplied by Brown (by then in partnership with Walter Boveri) in 1899 on the 40 km Burgdorf—Thun line, Switzerland. The first implementation of industrial frequency single-phase AC supply for locomotives came from Oerlikon in 1901, using the designs of Hans Behn-Eschenburg and Emil Huber-Stockar; installation on the Seebach-Wettingen line of the Swiss Federal Railways was completed in 1904. The 15 kV, 50 Hz 345 kW (460 hp), 48 tonne locomotives used transformers and rotary converters to power DC traction motors.[42]
Italian railways were the first in the world to introduce electric traction for the entire length of a main line rather than just a short stretch. The 106 km Valtellina line was opened on 4 September 1902, designed by Kandó and a team from the Ganz works.[43][41] The electrical system was three-phase at 3 kV 15 Hz. The voltage was significantly higher than used earlier and it required new designs for electric motors and switching devices.[44][45] The three-phase two-wire system was used on several railways in Northern Italy and became known as "the Italian system". Kandó was invited in 1905 to undertake the management of Società Italiana Westinghouse and led the development of several Italian electric locomotives.[44]
Battery-electric[edit]
A battery-electric locomotive (or battery locomotive) is an electric locomotive powered by on-board batteries; a kind of battery electric vehicle.
Such locomotives are used where a conventional diesel or electric locomotive would be unsuitable. An example is maintenance trains on electrified lines when the electricity supply is turned off. Another use is in industrial facilities where a combustion-powered locomotive (i.e., steam- or diesel-powered) could cause a safety issue due to the risks of fire, explosion or fumes in a confined space. Battery locomotives are preferred for mines where gas could be ignited by trolley-powered units arcing at the collection shoes, or where electrical resistance could develop in the supply or return circuits, especially at rail joints, and allow dangerous current leakage into the ground.[46]
The first known electric locomotive was built in 1837 by chemist Robert Davidson of Aberdeen, and it was powered by galvanic cells (batteries). Davidson later built a larger locomotive named Galvani, exhibited at the Royal Scottish Society of Arts Exhibition in 1841. The seven-ton vehicle had two direct-drive reluctance motors, with fixed electromagnets acting on iron bars attached to a wooden cylinder on each axle, and simple commutators. It hauled a load of six tons at four miles per hour (6 kilometers per hour) for a distance of one and a half miles (2.4 kilometres). It was tested on the Edinburgh and Glasgow Railway in September of the following year, but the limited power from batteries prevented its general use.[47][48][49]
Another example was at the Kennecott Copper Mine, Latouche, Alaska, where in 1917 the underground haulage ways were widened to enable working by two battery locomotives of 41⁄2 tons.[50] In 1928, Kennecott Copper ordered four 700-series electric locomotives with on-board batteries. These locomotives weighed 85 tons and operated on 750-volt overhead trolley wire with considerable further range whilst running on batteries.[51] The locomotives provided several decades of service using Nickel–iron battery (Edison) technology. The batteries were replaced with lead-acid batteries, and the locomotives were retired shortly afterward. All four locomotives were donated to museums, but one was scrapped. The others can be seen at the Boone and Scenic Valley Railroad, Iowa, and at the Western Railway Museum in Rio Vista, California. The Toronto Transit Commission previously operated a battery electric locomotive built by Nippon Sharyo in 1968 and retired in 2009.[52]
London Underground regularly operates battery-electric locomotives for general maintenance work.
In the 1960s, development of very high-speed service brought further electrification. The Japanese Shinkansen and the French TGV were the first systems for which devoted high-speed lines were built from scratch. Similar programs were undertaken in Italy, Germany and Spain; and many countries around the world. Railway electrification has constantly increased in the past decades, and as of 2012, electrified tracks account for nearly one third of total tracks globally.[53]
In comparison to the principal alternative, the diesel engine, electric railways offer substantially better energy efficiency, lower emissions and lower operating costs. Electric locomotives are also usually quieter, more powerful, and more responsive and reliable than diesels. They have no local emissions, an important advantage in tunnels and urban areas. Some electric traction systems provide regenerative braking that turns the train's kinetic energy back into electricity and returns it to the supply system to be used by other trains or the general utility grid. While diesel locomotives burn petroleum, electricity can be generated from diverse sources including renewable energy.
Other types[edit]
Fireless[edit]
Diesel-steam[edit]
Steam-diesel hybrid locomotives can use steam generated from a boiler or diesel to power a piston engine. The Cristiani Compressed Steam System used a diesel engine to power a compressor to drive and recirculate steam produced by a boiler; effectively using steam as the power transmission medium, with the diesel engine being the prime mover[54]
In the 1940s, diesel locomotives began to displace steam power on American railroads. Following the end of World War II, diesel power began to appear on railroads in many countries. The significantly better economics of diesel operation triggered a dash to diesel power, a process known as Dieselisation. By the late 1990s, only heritage railways continued to operate steam locomotives in most countries.
Diesel locomotives require considerably less maintenance than steam, with a corresponding reduction in the number of personnel needed to keep the fleet in service. The best steam locomotives spent an average of three to five days per month in the shop for routine maintenance and running repairs.[citation needed] Heavy overhauls were frequent, often involving removal of the boiler from the frame for major repairs. In contrast, a typical diesel locomotive requires no more than eight to ten hours of maintenance per month (maintenance intervals are 92 days or 184 days, depending upon a locomotive's age),[citation needed] and may run for decades between major overhauls.[citation needed] Diesel units do not pollute as much as steam trains;[citation needed] modern units produce low levels of exhaust emissions.
Atomic-electric[edit]
In the early 1950s, Dr. Lyle Borst of the University of Utah was given funding by various US railroad line and manufacturers to study the feasibility of an electric-drive locomotive, in which an onboard atomic reactor produced the steam to generate the electricity. At that time, atomic power was not fully understood; Borst believed the major stumbling block was the price of uranium. With the Borst atomic locomotive, the center section would have a 200-ton reactor chamber and steel walls 5 feet thick to prevent releases of radioactivity in case of accidents. He estimated a cost to manufacture atomic locomotives with 7000 h.p. engines at approximately $1,200,000 each.[55] Consequently, trains with onboard nuclear generators were generally deemed unfeasible due to prohibitive costs.
Fuel cell-electric[edit]
In 2002, the first 3.6 tonne, 17 kW hydrogen (fuel cell) -powered mining locomotive was demonstrated in Val-d'Or, Quebec. In 2007 the educational mini-hydrail in Kaohsiung, Taiwan went into service. The Railpower GG20B finally is another example of a fuel cell-electric locomotive.
Hybrid locomotives[edit]
There are many different types of hybrid or dual-mode locomotives using two or more types of motive power. The most common hybrids are electro-diesel locomotives powered either from an electricity supply or else by an onboard diesel engine. These are used to provide continuous journeys along routes that are only partly electrified. Examples include the EMD FL9 and Bombardier ALP-45DP
Use[edit]
There are three main uses of locomotives in rail transport operations: for hauling passenger trains, freight trains, and for switching (UK English: shunting).
Freight locomotives are normally designed to deliver high starting tractive effort and high sustained power. This allows them to start and move heavy trains, but usually comes at the cost of relatively low maximum speeds. Passenger locomotives usually develop lower starting tractive effort but are able to operate at the high speeds required to maintain passenger schedules. Mixed traffic locomotives (US English: general purpose or road switcher locomotives) do not develop as much starting tractive effort as a freight locomotive but are able to haul heavier trains than a passenger engine.
Most steam locomotives have reciprocating engines, with pistons coupled to the driving wheels by means of connecting rods, with no intervening gearbox. This means the combination of starting tractive effort and maximum speed is greatly influenced by the diameter of the driving wheels. Steam locomotives intended for freight service generally have smaller diameter driving wheels than passenger locomotives.
In diesel-electric and electric locomotives the control system between the traction motors and axles adapts the power output to the rails for freight or passenger service. Passenger locomotives may include other features, such as head-end power (also referred to as hotel power or electric train supply) or a steam generator.
Some locomotives are designed specifically to work steep grade railways, and feature extensive additional braking mechanisms and sometimes rack and pinion. Steam locomotives built for steep rack and pinion railways frequently have the boiler tilted relative to the locomotive frame, so that the boiler remains roughly level on steep grades.
Locomotives are also used on some High-speed trains: All TGV, many AVE, some KTX and the now-retired ICE 2 and ICE 1 trains all use locomotives, which may also be known as power cars. Using power cars easily allows for a high ride quality and less electrical equipment, [56] but when compared with electric multiple units, they also offer lower acceleration and higher axle weights (for the power cars) The KTX-II and ICE 1 use a mixture of electric multiple units and power cars.
Operational role [edit]
Locomotives occasionally work in a specific role, such as:
- Train engine is the technical name for a locomotive attached to the front of a railway train to haul that train. Alternatively, where facilities exist for push-pull operation, the train engine might be attached to the rear of the train;
- Pilot engine – a locomotive attached in front of the train engine, to enable double-heading;
- Banking engine – a locomotive temporarily assisting a train from the rear, due to a difficult start or a sharp incline gradient;
- Light engine – a locomotive operating without a train behind it, for relocation or operational reasons.
- Station pilot – a locomotive used to shunt passenger trains at a railway station.
Wheel arrangement[edit]
The wheel arrangement of a locomotive describes how many wheels it has; common methods include the AAR wheel arrangement, UIC classification, and Whyte notation systems.
Remote control locomotives[edit]
In the second half of the twentieth century remote control locomotives started to enter service in switching operations, being remotely controlled by an operator outside of the locomotive cab. The main benefit is one operator can control the loading of grain, coal, gravel, etc. into the cars. In addition, the same operator can move the train as needed. Thus, the locomotive is loaded or unloaded in about a third of the time.[citation needed]
Comparison to multiple units[edit]
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Advantages[edit]
There are a few basic reasons to isolate locomotive train power, as compared to self-propelled trains.[57]
- Ease
- Whether out of necessity to replace the locomotive due to failure, or for reason of needing to maintain the power unit, it is relatively easy to replace the locomotive with another, while not removing the entire train from service.
- Maximum utilization of power cars
- Separate locomotives facilitate movement of costly motive power assets as needed; thereby avoiding the expense associated with tied up or idle power resources.
- Flexibility
- Large locomotives can substitute for small locomotives when more power is required, for example, where grades are steeper. As needed, a locomotive can be used for either freight duties, or passenger service.
- Obsolescence cycles
- Separating motive power from payload-hauling cars enables replacement of one without affecting the other. To illustrate, locomotives might become obsolete when their associated cars are not, and vice versa.
- Safety
- In an accident, the locomotive may act as a buffer zone to the rest of the train. Depending on the obstacle encountered on the rail line, the heavier mass of a locomotive is less likely to deviate from its normal course. In the event of fire, it might be safer, for example, with diesel locomotives.
- Noise
- A single source of tractive power (i.e., motors in one place), is quieter than multiple operational power units, where one or more motors are located under every carriage. The noise problem is particularly noticeable in diesel multiple units.
- Saves time
- The motive power accompanies the cars to be hauled and consequently there is a saving in time.
- Maintenance
- It may be easier to maintain one power unit than multiple engines/motors. Especially for steam locomotives but also for other types, maintenance facilities can be very dirty environments and it is advantageous not to have to take passenger accommodation into the same depot. This was one reason for the demise of the GWR steam railmotors.
Disadvantages[edit]
There are several advantages of multiple unit (MU) trains compared to locomotives.
- Energy efficiency
- Multiple units are more energy efficient than locomotive-hauled trains and more nimble, especially on down grades, as much more of the train's weight (sometimes all of it) is placed on driven wheels, rather than suffering the dead weight of unpowered coaches.
- No need to turn the locomotive
- Many multiple units have cabs at both ends; therefore, the train may be reversed without uncoupling/re-coupling the locomotive, providing quicker turnaround times, reduced crew costs, and enhanced safety. In practice, the development of driving van trailers and cab cars has removed the need for locomotives to run-around, giving easy bi-directional operation and removing this MU advantage.
- Reliability
- Multiple unit trains have multiple engines, where the failure of one engine usually does not prevent the train from continuing on its journey. A locomotive drawn passenger train typically has only a single power unit; the failure of this single unit temporarily disables the train. However, as is often the case with locomotive hauled freight trains, some passenger trains utilize multiple locomotives, and are thus able to continue at reduced speed after the failure of one locomotive.
Locomotives in numismatics[edit]
Locomotives have been a subject for collectors' coins and medals. One example is the 25 Euro 150 Years Semmering Alpine Railway commemorative coin. The obverse shows two locomotives: one historic and one modern, representing the technical development in locomotive construction between the years 1854 and 2004. The lower half depicts the first functional Alpine locomotive, the Engerth; constructed by Wilhelm Freiherr von Engerth. The upper half depicts the ES 64 U "Taurus", a high performance locomotive from the turn of the 21st century.[citation needed]
See also[edit]
- Air brake
- Articulated locomotive
- Autorail
- Bank engine
- Builder's plate
- Control car
- Duplex locomotive
- Electric multiple unit
- Headboard (train)
- Headstock (rolling stock)
- Kryšpín's system
- List of locomotive builders
- List of locomotives
- Locomotives in art
- Railway brakes
- Regenerative (dynamic) brakes
- Traction engine
- Train horn
- Vacuum brake
- World's largest locomotive
Rail transportation in the United States
| Rail transport in the United States | |||||||
|---|---|---|---|---|---|---|---|
 | |||||||
| Operation | |||||||
| Major operators | Amtrak BNSF Railway CSX Transportation Kansas City Southern Railway Norfolk Southern Railway Union Pacific Railroad | ||||||
| Statistics | |||||||
| Ridership | 549,631,632[1] 29 million (Amtrak only)[2] | ||||||
| Passenger km | 10.3 billion[2] | ||||||
| Freight | 1.71 trillion ton-mile[2] | ||||||
| System length | |||||||
| Total | 160,141 mi (257,722 km) | ||||||
| Track gauge | |||||||
| Main | 1,435 mm (4 ft 81⁄2 in) standard gauge | ||||||
| Features | |||||||
| Longest tunnel | Cascade Tunnel, 7.8 miles (12.6 km) | ||||||
| |||||||
Rail transportation in the United States consists primarily of freight shipments, with a well integrated network of standard gauge private freight railroads extending into Canada and Mexico. Passenger service is mainly mass transit and commuter rail in major cities. Intercity passenger service, once a large and vital part of the nation's passenger transportation network, plays a limited role as compared to transportation patterns in many other countries. The United States has the largest rail transport network size of any country in the world.
History[edit]
1720–1825[edit]
A railroad was reportedly used in the construction of the French Royal Army fortress at Louisburg, Nova Scotia in 1720.[3] Between 1762 and 1764, at the close of the French and Indian War, a gravity railroad (mechanized tramway) (Montresor's Tramway) was built by British Army engineers up the steep riverside terrain near the Niagara River waterfall's escarpment at the Niagara Portage (which the local Senecas called "Crawl on All Fours.") in Lewiston, New York.[4]
1826–1850[edit]
During this period, Americans watched closely the development of railways in the United Kingdom. The main competition came from canals, many of which were in operation under state ownership, and from privately owned steamboats plying the nation's vast river system. In 1829, Massachusetts prepared an elaborate plan. Government support, most especially the detailing of officers from the U.S. Army Corps of Engineers – the nation's only repository of civil engineering expertise – was crucial in assisting private enterprise in building nearly all the country's railroads. Army Engineer officers surveyed and selected routes, planned, designed, and constructed rights-of-way, track, and structures, and introduced the Army's system of reports and accountability to the railroad companies. More than one in ten of the 1,058 graduates from the U.S. Military Academy at West Point between 1802 and 1866 became corporate presidents, chief engineers, treasurers, superintendents and general managers of railroad companies.[5] Among the Army officers who thus assisted the building and managing of the first American railroads were Stephen Harriman Long, George Washington Whistler, and Herman Haupt.
State governments granted charters that created the business corporation and gave a limited right of eminent domain, allowing the railroad to buy needed land, even if the owner objected.[note 1]
The Baltimore and Ohio Railroad (B&O) was chartered in 1827 to build a steam railroad west from Baltimore, Maryland, to a point on the Ohio River. It began scheduled freight service over its first section on May 24, 1830. The first railroad to carry passengers, and, by accident, the first tourist railroad, began operating 1827. It was the Lehigh Coal & Navigation Company, initially a gravity road feeding anthracite coal downhill to the Lehigh Canal and using mule-power to return nine miles up the mountain; but, by the summer of 1829, as documented by newspapers, it regularly carried passengers. Later renamed the Summit Hill & Mauch Chunk Railroad, it added a steam powered cable-return track for true two-way operation by 1843, and ran as a common carrier and tourist road from the 1890s to 1937. Lasting 111 years, the SH&MC is described by some to be the world's first roller coaster.[note 2]
The first purpose-built common carrier railroad in the northeast was the Mohawk & Hudson Railroad; incorporated in 1826, it began operating in August 1831. Soon, a second passenger line, the Saratoga & Schenectady Railroad, started service in June 1832.[6]:1–115
In 1835 the B&O completed a branch from Baltimore southward to Washington, D.C.[7]:157 The Boston & Providence Railroad was incorporated in 1831 to build a railroad between Boston, Massachusetts and Providence, Rhode Island; the road was completed in 1835 with the completion of the Canton Viaduct in Canton, Massachusetts.
Numerous short lines were built, especially in the south, to provide connections to the river systems and the river boats common to the era. In Louisiana, the Pontchartrain Rail-Road, a 5-mile (8.0 km) route connecting the Mississippi River with Lake Pontchartrain at New Orleans was completed in 1831 and provided over a century of operation. Completed in 1830, the Tuscumbia, Courtland & Decatur Railroad became the first railroad constructed west of the Appalachian Mountains; it connected the two Alabama cities of Decatur and Tuscumbia.
Soon, other roads that would themselves be purchased or merged into larger entities, formed. The Camden & Amboy Railroad (C&A), the first railroad built in New Jersey, completed its route between its namesake cities in 1834. The C&A ran successfully for decades connecting New York City to the Delaware valley, and would eventually become part of the Pennsylvania Railroad.
1851–1900[edit]
By 1850, over 9,000 miles (14,000 km) of railroad lines had been built.[8] The B&O's westward route reached the Ohio River in 1852, the first eastern seaboard railroad to do so.[9]:Ch.V Railroad companies in the North and Midwest constructed networks that linked nearly every major city by 1860.
Transcontinental railroad[edit]
The First Transcontinental Railroad in the U.S. was built across North America in the 1860s, linking the railroad network of the eastern U.S. with California on the Pacific coast. Finished on May 10, 1869 at the Golden spike event at Promontory Summit, Utah, it created a nationwide mechanized transportation network that revolutionized the population and economy of the American West, catalyzing the transition from the wagon trains of previous decades to a modern transportation system. It achieved the status of first transcontinental railroad by connecting myriad eastern U.S. railroads to the Pacific Ocean. However it was not the world's longest railroad, as Canada's Grand Trunk Railway (GTR) had, by 1867, already accumulated more than 2,055 kilometres (1,277 mi) of track by connecting Portland, Maine, and the three northern New England states with the Canadian Atlantic provinces, and west as far as Port Huron, Michigan, through Sarnia, Ontario.
Authorized by the Pacific Railway Act of 1862 and heavily backed by the federal government, the first transcontinental railroad was the culmination of a decades-long movement to build such a line and was one of the crowning achievements of the presidency of Abraham Lincoln, completed four years after his death. The building of the railroad required enormous feats of engineering and labor in the crossing of the Great Plains and the Rocky Mountains by the Union Pacific Railroad (UP) and Central Pacific Railroad, the two federally chartered enterprises that built the line westward and eastward respectively.[10] The building of the railroad was motivated in part to bind the Union together during the strife of the American Civil War. It substantially accelerated the populating of the West by homesteaders, leading to rapid cultivation of new farm lands. The Central Pacific and the Southern Pacific Railroad combined operations in 1870 and formally merged in 1885; the Union Pacific originally bought the Southern Pacific in 1901 and was forced to divest it in 1913, but took it over again in 1996.
Much of the original roadbed is still in use today and owned by UP, which is descended from both of the original railroads.
Rail gauge selection[edit]
Many Canadian and U.S. railroads originally used various broad gauges, but most were converted to 4 ft 81⁄2 in (1,435 mm) by 1886, when the conversion of much of the southern rail network from 5 ft (1,524 mm) gauge took place. This and the standardization of couplings and air brakes enabled the pooling and interchange of locomotives and rolling stock.
Impact of railroads on the economy[edit]
| Region | 1850 | 1860 | 1870 | 1880 | 1890 |
|---|---|---|---|---|---|
| New England | 2,507 | 3,660 | 4,494 | 5,982 | 6,831 |
| Middle States | 3,202 | 6,705 | 10,964 | 15,872 | 21,536 |
| Southern States | 2,036 | 8,838 | 11,192 | 14,778 | 29,209 |
| Western States and Territories | 1,276 | 11,400 | 24,587 | 52,589 | 62,394 |
| Pacific States and Territories | 23 | 1,677 | 4,080 | 9,804 | |
| Totals | 9,021 | 30,626 | 52,914 | 93,301 | 129,774 |
The railroad had its largest impact on the American transportation system during the second half of the 19th century. The standard historical interpretation holds that the railroads were central to the development of a national market in the United States and served as a model of how to organize, finance and manage a large corporation,[11] along with allowing growth of the American population outside of the eastern regions.
Take-off Thesis[edit]
In 1944, American economic historian Leland Jenks (having conducted an analysis based on Joseph Schumpeter's theory of innovation) similarly claims that railroads had a direct impact on the growth of the United States' real income and an indirect impact on its economic expansion.[12] In his Rostovian Take-off Thesis, Walt W. Rostow systematically developed the Jenks model that railroads were crucial to American economic growth. According to Rostow, railroads were responsible for the "take-off" of American industrialization in the period of 1843–1860. This "take-off" in economic growth occurred because the railroad helped to decrease transportation costs, transport new products and goods to commercial markets, and generally widen the market.[13] Furthermore, the development of railroads stimulated the growth of the modern coal, iron, and engineering industries, all of which were essential for wider economic growth.[13] According to Rostow's Take-off Thesis, railroads generated new investment, which simultaneously helped develop financial markets in the United States.
Contemporary American economic historians have challenged this conventional view. The respective findings of Robert Fogel and Albert Fishlow do not support Rostow's claim that railroads stimulated widespread industrialization by increasing demand for coal, iron, and machinery. Drawing upon historical data, Robert Fogel found that the impact of railroads on the iron and steel industries was minimal: from 1840 to 1860, railroad production used less than five percent of the total pig iron produced. In addition, Fogel argues, only six percent of total coal production from 1840 to 1860 was consumed by railroads through consumption of iron products.[14] Like Fogel, Fishlow showed that most railroads used very little coal during this time period because they were able to burn wood instead.[15] Fishlow also found that iron used by railroads was only 20% of net consumption in the 1850s.[15]
Fogel and "essential" issue[edit]
Fogel concludes that railroads were important but not "essential" to late 19th century growth in the U.S. in the sense that a possible alternative existed even if it was never tried. Fogel focuses on the "social saving" created by railroads, which he defines as the difference between the actual level of national income in 1890 and the theoretical level of national income if transportation somehow existed in the most efficient way possible to the absence of the railroad.[16] He found that without the railroad, America's gross national product (GNP) would have been 7.2% less in 1890. While the largest contribution to GNP growth made by any single innovation before 1900, this percentage only represents 2–3 years of GNP growth.[16]
Fogel makes several key assumptions and decisions in his analysis. First, his calculations comprise transportation between the primary markets of the Midwest and the secondary markets of the East and South (interregional) and transportation between cities and rural areas (intraregional). Second, he chooses to focus on the shipment of four agricultural commodities: wheat, corn, beef, and pork. Third, Fogel's social saving calculation accounts for costs not included in water rates (which include the cargo losses in transit, transshipment costs, extra wagon haulage, time lost because of slower speed and because canals froze in the winter, and capital costs). One criticism[citation needed] of Fogel's analysis is that it does not account for the externalities or "spill-over" effects of the railroads, which (if included) may have increased his estimate for social savings [definition needed]. Railroads provided much of the demand for the technological advances in a number of areas, including heat dynamics, combustion engineering, thermodynamics, metallurgy, civil engineering, machining, and metal fabrication. Furthermore, Fogel does not discuss the role railroads played in the development of the financial system or in attracting foreign capital, which otherwise might not have been available.
Albert Fishlow[edit]
Fishlow estimates that the railroad's social savings—or what he terms "direct benefits"—were higher than those calculated by Fogel. Fishlow's research may indicate that the development of railroads significantly influenced real income in the United States. Instead of Fogel's term "social saving", Fishlow uses the term "direct benefits" to describe the difference between the actual level of national income in 1859 and the theoretical level of income using the least expensive, but existing alternative means.[15] Fishlow calculated the social savings in 1859 at 4 percent of GNP and in 1890 at 15 percent of GNP—higher than Fogel's estimate of 7.2% in 1890.[17]
Monopolies, antitrust law, and regulation[edit]
Industrialists such as Cornelius Vanderbilt and Jay Gould became wealthy through railroad ownerships, as large railroad companies such as the New York Central, Grand Trunk Railway and the Southern Pacific spanned several states. In response to monopolistic practices (such as price fixing) and other excesses of some railroads and their owners, Congress created the Interstate Commerce Commission (ICC) in 1887. The ICC indirectly controlled the business activities of the railroads through issuance of extensive regulations. Congress also enacted antitrust legislation to prevent railroad monopolies, beginning with the Sherman Antitrust Act in 1890.
1901–1970[edit]
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The principal mainline railroads concentrated their efforts on moving freight and passengers over long distances. But many had suburban services near large cities, which might also be served by Streetcar and Interurban lines. The Interurban was a concept which relied almost exclusively on passenger traffic for revenue. Unable to survive the Great Depression, the failure of most Interurbans by that time left many cities without suburban passenger railroads, although the largest cities such as New York City, Chicago, Boston and Philadelphia continued to have suburban service. The major railroads passenger flagship services included multi-day journeys on luxury trains resembling hotels, which were unable to compete with airlines in the 1950s. Rural communities were served by slow trains no more than twice a day. They survived until the 1960s because the same train hauled the Railway Post Office cars, paid for by the US Post Office. RPOs were withdrawn when mail sorting was mechanized.
As early as the 1930s, automobile travel had begun to cut into the rail passenger market, somewhat reducing economies of scale, but it was the development of the Interstate Highway System and of commercial aviation in the 1950s and 1960s, as well as increasingly restrictive regulation, that dealt the most damaging blows to rail transportation, both passenger and freight. General Motors and others were convicted of running the streetcar industry into the ground purposefully in what is referred to as the Great American Streetcar Scandal. There was little point in operating passenger trains to advertise freight service when those who made decisions about freight shipping traveled by car and by air, and when the railroads' chief competitors for that market were interstate trucking companies.
Soon, the only things keeping most passenger trains running were legal obligations. Meanwhile, companies who were interested in using railroads for profitable freight traffic were looking for ways to get out of those legal obligations, and it looked like intercity passenger rail service would soon become extinct in the United States beyond a few highly populated corridors. The final blow for passenger trains in the U.S. came with the loss of railroad post offices in the 1960s. On May 1, 1971, the federally funded Amtrak took over (with a few exceptions) all intercity passenger rail service in the continental United States. The Rio Grande, with its Denver-Ogden Rio Grande Zephyr and the Southern with its Washington, D.C.–New Orleans Southern Crescent chose to stay out of Amtrak, and the Rock Island, with two intrastate Illinois trains, was too far gone to be included into Amtrak.
Freight transportation continued to labor under regulations developed when rail transport had a monopoly on intercity traffic, and railroads only competed with one another. An entire generation of rail managers had been trained to operate under this regulatory regime. Labor unions and their work rules were likewise a formidable barrier to change. Overregulation, management and unions formed an "iron triangle" of stagnation, frustrating the efforts of leaders such as the New York Central's Alfred E. Perlman. In particular, the dense rail network in the Northeastern U.S. was in need of radical pruning and consolidation. A spectacularly unsuccessful beginning was the 1968 formation and subsequent bankruptcy of the Penn Central, barely two years later.
1970–present[edit]
Historically, on routes where a single railroad has had an undisputed monopoly, passenger service was as spartan and as expensive as the market and ICC regulation would bear, since such railroads had no need to advertise their freight services. However, on routes where two or three railroads were in direct competition with each other for freight business, such railroads would spare no expense to make their passenger trains as fast, luxurious, and affordable as possible, as it was considered to be the most effective way of advertising their profitable freight services.
The National Association of Railroad Passengers (NARP) was formed in 1967 to lobby for the continuation of passenger trains. Its lobbying efforts were hampered somewhat by Democratic opposition to any sort of rail subsidies to the privately owned railroads, and Republican opposition to nationalization of the railroad industry. The proponents were aided by the fact that few in the federal government wanted to be held responsible for the seemingly inevitable extinction of the passenger train, which most regarded as tantamount to political suicide. The urgent need to solve the passenger train disaster was heightened by the bankruptcy filing of the Penn Central, the dominant railroad in the Northeast U.S., on June 21, 1970.
Under the Rail Passenger Service Act of 1970, Congress created the National Railroad Passenger Corporation (NRPC) to subsidize and oversee the operation of intercity passenger trains. The Act provided that
- Any railroad operating intercity passenger service could contract with the NRPC, thereby joining the national system.
- Participating railroads bought into the new corporation using a formula based on their recent intercity passenger losses. The purchase price could be satisfied either by cash or rolling stock; in exchange, the railroads received Amtrak common stock.
- Any participating railroad was freed of the obligation to operate intercity passenger service after May 1971, except for those services chosen by the U.S. Department of Transportation as part of a "basic system" of service and paid for by NRPC using its federal funds.
- Railroads who chose not to join the Amtrak system were required to continue operating their existing passenger service until 1975 and thenceforth had to pursue the customary ICC approval process for any discontinuance or alteration to the service.
The original working brand name for NRPC was Railpax, which eventually became Amtrak. At the time, many Washington insiders viewed the corporation as a face-saving way to give passenger trains the one "last hurrah" demanded by the public, but expected that the NRPC would quietly disappear in a few years as public interest waned. However, while Amtrak's political and financial support have often been shaky, popular and political support for Amtrak has allowed it to survive into the 21st century.
Similarly, to preserve a declining freight rail industry, Congress passed the Regional Rail Reorganization Act of 1973 (sometimes called the "3R Act"). The act was an attempt to salvage viable freight operations from the bankrupt Penn Central and other lines in the northeast, mid-Atlantic and Midwestern regions.[18] The law created the Consolidated Rail Corporation (Conrail), a government-owned corporation, which began operations in 1976. Another law, the Railroad Revitalization and Regulatory Reform Act of 1976 (the "4R Act"), provided more specifics for the Conrail acquisitions and set the stage for more comprehensive deregulation of the railroad industry.[19] Portions of the Penn Central, Erie Lackawanna, Reading Railroad, Ann Arbor Railroad, Central Railroad of New Jersey, Lehigh Valley, and Lehigh and Hudson River were merged into Conrail.
The freight industry continued its decline until Congress passed the Staggers Rail Act in 1980, which largely deregulated the rail industry. Since then, U.S. freight railroads have reorganized, discontinued their lightly used routes and returned to profitability.[20]:245–252
Freight railroads[edit]
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Freight railroads play an important role in the U.S. economy, especially for moving imports and exports using containers, and for shipments of coal and oil. According to the British news magazine The Economist, "They are universally recognised in the industry as the best in the world."[21] Productivity rose 172% between 1981 and 2000, while rates decreased by 55% (after accounting for inflation). Rail's share of the American freight market rose to 43%, the highest for any rich country.[21]
U.S. railroads still play a major role in the nation's freight shipping. They carried 750 billion ton-miles by 1975 which doubled to 1.5 trillion ton-miles in 2005.[22][23] In the 1950s, the U.S. and Europe moved roughly the same percentage of freight by rail; by 2000, the share of U.S. rail freight was 38% while in Europe only 8% of freight traveled by rail.[24][25] In 2000, while U.S. trains moved 2,390 billion ton-kilometers of freight, the 15-nation European Union moved only 304 billion ton-kilometers of freight.[26] In terms of ton-miles, railroads annually move more than 25% of the United States' freight and connect businesses with each other across the country and with markets overseas.[22] In 2018, US rail freight had a transport energy efficiency of 473 miles per gallon of fuel per ton of freight.[27]
U.S. freight railroads are separated into three classes, set by the Surface Transportation Board, based on annual revenues:
- Class I for freight railroads with annual operating revenues above $346.8 million in 2006 dollars. In 1900, there were 132 Class I railroads. Today, as the result of mergers, bankruptcies, and major changes in the regulatory definition of "Class I", there are only seven railroads operating in the United States that meet the criteria for Class I. As of 2011, U.S. freight railroads operated 139,679 route-miles (224,792 km) of standard gauge in the U.S. Although Amtrak qualifies for Class I status under the revenue criteria, it is not considered a Class I railroad because it is not a freight railroad.
- Class II for freight railroads with revenues between $27.8 million and $346.7 million in 2000 dollars
- Class III for all other freight revenues.
In 2013, the U.S. moved more oil out of North Dakota by rail than by the Trans-Alaska pipeline.[28] This trend—tenfold in two years and 40-fold in five years—is forecast to increase.[29]
Classes of freight railroads[edit]
There are four different classes of freight railroads: Class I, regional, local line haul, and switching & terminal. Class I railroads are defined as those with revenue of at least $346.8 million in 2006. They comprise just one percent of the number of freight railroads, but account for 67 percent of the industry's mileage, 90 percent of its employees, and 93 percent of its freight revenue.
A regional railroad is a line haul railroad with at least 350 miles (560 km) and/or revenue between $40 million and the Class I threshold. There were 33 regional railroads in 2006. Most have between 75 and 500 employees.
Local line haul railroads operate less than 350 miles (560 km) and earn less than $40 million per year (most earn less than $5 million per year). In 2006, there were 323 local line haul railroads. They generally perform point-to-point service over short distances.
Switching and terminal (S&T) carriers are railroads that primarily provide switching and/or terminal services, regardless of revenue. They perform pick up and delivery services within a certain area.
Traffic and public benefits[edit]
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U.S. freight railroads operate in a highly competitive marketplace. In 2011, within the U.S., railroads carried 39.9% of freight by ton-mile, followed by trucks (33.4%), oil pipelines (14.3%), barges (12%) and air (0.3%).[citation needed] However, railroads' revenue share has been slowly falling for decades, a reflection of the intensity of the competition they face and of the large rate reductions railroads have passed through to their customers over the years.
North American railroads operated 1,471,736 freight cars and 31,875 locomotives, with 215,985 employees. They originated 39.53 million carloads (averaging 63 tons each) and generated $81.7 billion in freight revenue of present 2014. The average haul was 917 miles. The largest (Class 1) U.S. railroads carried 10.17 million intermodal containers and 1.72 million piggyback trailers. Intermodal traffic was 6.2% of tonnage originated and 12.6% of revenue. The largest commodities were coal, chemicals, farm products, nonmetallic minerals and intermodal. Other major commodities carried include lumber, automobiles, and waste materials. Coal alone was 43.3% of tonnage and 24.7% of revenue.[30] Coal accounted for roughly half of U.S. electricity generation[31] and was a major export. As natural gas became cheaper than coal, coal supplies dropped 11% in 2015 but coal rail freight dropped by up to 40%, allowing an increase in car transport by rail, some in tri-level railcars.[32] US coal consumption dwindled from over 1,100 million tons in 2008 to 687 million tons in 2018.[33]
The fastest growing rail traffic segment is currently intermodal. Intermodal is the movement of shipping containers or truck trailers by rail and at least one other mode of transportation, usually trucks or ocean-going vessels. Intermodal combines the door-to-door convenience of trucks with the long-haul economy of railroads. Rail intermodal has tripled in the last 25 years. It plays a critical role in making logistics far more efficient for retailers and others. The efficiency of intermodal provides the U.S. with a huge competitive advantage in the global economy. A major factor in making U.S. rail intermodal freight competitive is the use of double-stack rail transport, where shipping containers are loaded two-high on special freight cars, potential doubling the number of containers one train can carry, with corresponding reductions in operating costs.
Freight rail working with passenger rail[edit]
Prior to Amtrak's creation in 1970, intercity passenger rail service in the U.S. was provided by the same companies that provided freight service. When Amtrak was formed, in return for government permission to exit the passenger rail business, freight railroads donated passenger equipment to Amtrak and helped it get started with a capital infusion of some $200 million.
The vast majority of the 22,000 or so miles over which Amtrak operates are actually owned by freight railroads. By law, freight railroads must grant Amtrak access to their track upon request. In return, Amtrak pays fees to freight railroads to cover the incremental costs of Amtrak's use of freight railroad tracks.[citation needed]
Passenger railroads[edit]
The sole long-distance intercity passenger railroad in the continental U.S. is Amtrak, although Brightline plans to provide intercity service between Orlando and Miami, and multiple current commuter rail systems provide regional intercity services such as New York-New Haven, Stockton-San Jose and West Palm Beach-Miami. In Alaska, intercity service is provided by Alaska Railroad instead of Amtrak. Commuter rail systems exist in more than a dozen metropolitan areas, but these systems are not extensively interconnected, so commuter rail cannot be used alone to traverse the country. Commuter systems have been proposed in approximately two dozen other cities, but interplays between various local-government administrative bottlenecks and ripple effects from the 2007–2012 global financial crisis have generally pushed such projects farther and farther into the future, or have even sometimes mothballed them entirely.
The most culturally notable and physically evident exception to the general lack of significant passenger rail transport in the U.S. is the Northeast Corridor between Washington, Baltimore, Philadelphia, New York City, and Boston, with significant branches in Connecticut and Massachusetts. The corridor handles frequent passenger service that is both Amtrak and commuter. New York City itself is noteworthy for high usage of passenger rail transport, both subway and commuter rail (Long Island Rail Road, Metro-North Railroad, New Jersey Transit). The subway system is used by one third of all U.S. mass transit users. Chicago also sees high rail ridership, with a local elevated system, one of the world's last interurban lines, and fourth most-ridden commuter rail system in the United States: Metra. Other major cities with substantial rail infrastructure include Philadelphia's SEPTA, Boston's MBTA, and Washington, D.C.'s network of commuter rail and rapid transit. Denver, Colorado constructed a new electrified commuter rail system in the 2000s to complement the city's light rail system. The commuter rail systems of San Diego and Los Angeles, Coaster and Metrolink, connect in Oceanside, California. The San Francisco Bay Area additionally hosts several local rail operators.
Privately run inter-city passenger rail operations have also been restarted since 2018 in south Florida, with additional routes under development. Brightline is a higher-speed rail train, run by All Aboard Florida. It began service in January 2018 between Fort Lauderdale and West Palm Beach; its service was extended to Miami in May 2018, with an extension to Orlando International Airport planned by 2022.[34] Brightline has also proposed a further extension of its service from Orlando to Tampa via Walt Disney World,[35] and a high-speed rail service from Victorville, California to Las Vegas.[36] In addition, the Texas Central Railway is currently developing plans for a proposed greenfield high-speed rail line using Japanese Shinkansen trains between Dallas and Houston, which is expected to begin construction in 2020 and open in early 2026.[37]
Car types[edit]
The basic design of a passenger car was standardized by 1870. By 1900, the main car types were: baggage, coach, combine, diner, dome car, lounge, observation, private, Pullman, railroad post office (RPO) and sleeper.
19th century: First passenger cars and early development[edit]
The first passenger cars resembled stagecoaches. They were short, often less than 10 ft (3.05 m) long, tall and rode on a single pair of axles.
American mail cars first appeared in the 1860s and at first followed English design. They had a hook that would catch the mailbag in its crook.
As locomotive technology progressed in the mid-19th century, trains grew in length and weight. Passenger cars grew along with them, first getting longer with the addition of a second truck (one at each end), and wider as their suspensions improved. Cars built for European use featured side door compartments, while American car design favored a single pair of doors at one end of the car in the car's vestibule; compartmentized cars on American railroads featured a long hallway with doors from the hall to the compartments.
One possible reason for this difference in design principles between American and European carbuilding practice could be the average distance between stations on the two continents. While most European railroads connected towns and villages that were still very closely spaced, American railroads had to travel over much greater distances to reach their destinations. Building passenger cars with a long passageway through the length of the car allowed the passengers easy access to the restroom, among other things, on longer journeys.
Dining cars first appeared in the late 1870s and into the 1880s. Until this time, the common practice was to stop for meals at restaurants along the way (which led to the rise of Fred Harvey's chain of Harvey House restaurants in America). At first, the dining car was simply a place to serve meals that were picked up en route, but they soon evolved to include galleys in which the meals were prepared.
1900–1950: Lighter materials, new car types[edit]
By the 1920s, passenger cars on the larger standard gauge railroads were normally between 60 and 70 feet (18 and 21 m) long. The cars of this time were still quite ornate, many of them being built by experienced coach makers and skilled carpenters.
With the 1930s came the widespread use of stainless steel for car bodies. The typical passenger car was now much lighter than its "heavyweight" wood cousins of old. The new "lightweight" and streamlined cars carried passengers in speed and comfort to an extent that had not been experienced to date. Aluminum and Cor-ten were also used in lightweight car construction, but stainless steel was the preferred material for car bodies. It is not the lightest of materials, nor is it the least expensive, but stainless steel cars could be, and often were, left unpainted except for the car's reporting marks that were required by law.
By the end of the 1930s, railroads and car builders were debuting car body and interior styles that could only be dreamed of before. In 1937, the Pullman Company delivered the first cars equipped with roomettes—that is, the car's interior was sectioned off into compartments, much like the coaches that were still in widespread use across Europe. Pullman's roomettes, however, were designed with the single traveler in mind. The roomette featured a large picture window, a privacy door, a single fold-away bed, a sink and small toilet. The roomette's floor space was barely larger than the space taken up by the bed, but it allowed the traveler to ride in luxury compared to the multilevel semiprivate berths of old.
Now that passenger cars were lighter, they were able to carry heavier loads, but the size of the average passenger load that rode in them didn't increase to match the cars' new capacities. The average passenger car couldn't get any wider or longer due to side clearances along the railroad lines, but they generally could get taller because they were still shorter than many freight cars and locomotives. As a result, the railroads soon began building and buying dome and bilevel cars to carry more passengers.
1950–present: High-technology advancements[edit]
Carbody styles have generally remained consistent since the middle of the 20th century. While new car types have not made much of an impact, the existing car types have been further enhanced with new technology.
Starting in the 1950s, the passenger travel market declined in North America, though there was growth in commuter rail. The higher clearances in North America enabled bi-level commuter coaches that could hold more passengers. These cars started to become common in the United States in the 1960s.
While intercity passenger rail travel declined in the United States during the 1950s, ridership continued to increase in Europe during that time. With the increase came newer technology on existing and new equipment. The Spanish company Talgo began experimenting in the 1940s with technology that would enable the axles to steer into a curve, allowing the train to move around the curve at a higher speed. The steering axles evolved into mechanisms that would also tilt the passenger car as it entered a curve to counter the centrifugal force experienced by the train, further increasing speeds on existing track. Today, tilting passenger trains are commonplace. Talgo's trains are used on some short and medium distance routes such as Amtrak Cascades from Eugene, Oregon, to Vancouver, British Columbia.
In August 2016, the Department of Transportation approved the largest loan in the department's history, $2.45 billion to upgrade the passenger train service in the Northeast region. The $2.45 billion will be used to purchase 28 new train sets for the high-speed Acela train between Washington through Philadelphia, New York and into Boston. The money will also be used build new stations and platforms. The money will also be used to rehabilitate railroad tracks and upgrade four stations, including Washington's Union Station and Baltimore's Penn Station.
High-speed rail[edit]
There is currently only one operating high speed line in the US, Amtrak's Acela Express between Washington, DC, and Boston. It currently has a maximum speed of 150 miles per hour (240 km/h), and only in some sections between Boston and Providence, RI, soon to be 160 miles per hour (260 km/h) after introduction of new Avelia Liberty trains, eventually to be upgraded to 186 miles per hour (299 km/h) over some sections. The state of California is constructing its own HSR system, California High-Speed Rail, constructed to 220 miles per hour (350 km/h) standards in some places. The first section in the Central Valley is due to open around 2027.
Rolling stock reporting marks[edit]
Every piece of railroad rolling stock operating in North American interchange service is required to carry a standardized set of reporting marks. The marks are made up of a two- to four-letter code identifying the owner of the equipment accompanied by an identification number and statistics on the equipment's capacity and tare (unloaded) weight. Marks whose codes end in X (such as TTGX) are used on equipment owned by entities that are not common carrier railroads themselves. Marks whose codes end in U are used on containers that are carried in intermodal transport, and marks whose codes end in Z are used on trailers that are carried in intermodal transport, per ISO standard 6346). Most freight cars carry automatic equipment identification RFID transponders.
Typically, railroads operating in the United States reserve one- to four-digit identification numbers for powered equipment such as diesel locomotives and six-digit identification numbers for unpowered equipment. There is no hard and fast rule for how equipment is numbered; each railroad maintains its own numbering policy for its equipment.
List of major United States railroads[edit]
- Amtrak
- BNSF Railway
- Canadian National Railway
- Canadian Pacific Railway
- CSX Transportation
- Kansas City Southern Railway
- Norfolk Southern Railway
- Union Pacific Railroad
Rail links with adjacent countries[edit]
Canada – yes – Same gauge 4 ft 81⁄2 in (1,435 mm) (none via Alaska)
Mexico – yes – Same gauge 4 ft 81⁄2 in
Regulation[edit]
Federal regulation of railroads is mainly through the United States Department of Transportation, especially the Federal Railroad Administration which regulates safety, and the Surface Transportation Board which regulates rates, service, the construction, acquisition and abandonment of rail lines, carrier mergers and interchange of traffic among carriers.
Railroads are also regulated by the individual states, for example through the Massachusetts Department of Public Utilities.[38]
See also[edit]
- Timeline of United States railway history
- Railroad electrification in the United States
- List of rail transit systems in the United States
- Oldest railroads in North America
- History of rail transport in the United States
- Transportation in the United States
- Federal Employers Liability Act (protects and compensates railroad employees)
- Nationalized Industries in the United States
- Railroad car – general overview of all car types in use
Notes[edit]
- ^ Horse-drawn rail lines were in use for short-distance hauling of stone. See Gridley Bryant. Other purpose-built railroads were operating in the 1820s. The Delaware and Hudson Canal Company, which later became the Delaware & Hudson Railroad, built its first tracks in 1826 as a gravity railroad in Carbondale, Pennsylvania, to haul coal from a mine to the canal at Honesdale.
- ^ The SH&MCsbRR carried sundries, groceries, and goods up to Summit Hill, including official postal deliveries.
https://en.wikipedia.org/wiki/Rail_transportation_in_the_United_States
| Comparing Mark the 19th Book of the 2nd Cycle with the 19th Century | |
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| Mark 1 - Listen 1 The beginning of the gospel of Jesus Christ, the Son of God; 2 As it is written in the prophets, Behold, I send my messenger before thy face, which shall prepare thy way before thee. 3 The voice of one crying in the wilderness, Prepare ye the way of the Lord, make his paths straight. 4 John did baptize in the wilderness, and preach the baptism of repentance for the remission of sins. 5 And there went out unto him all the land of Judaea, and they of Jerusalem, and were all baptized of him in the river of Jordan, confessing their sins. 6 And John was clothed with camel's hair, and with a girdle of a skin about his loins; and he did eat locusts and wild honey; 7 And preached, saying, There cometh one mightier than I after me, the latchet of whose shoes I am not worthy to stoop down and unloose. 8 I indeed have baptized you with water: but he shall baptize you with the Holy Ghost. 9 And it came to pass in those days, that Jesus came from Nazareth of Galilee, and was baptized of John in Jordan. 10 And straightway coming up out of the water, he saw the heavens opened, and the Spirit like a dove descending upon him: 11 And there came a voice from heaven, [saying], Thou art my beloved Son, in whom I am well pleased. 12 And immediately the Spirit driveth him into the wilderness. 13 And he was there in the wilderness forty days, tempted of Satan; and was with the wild beasts; and the angels ministered unto him. 14 Now after that John was put in prison, Jesus came into Galilee, preaching the gospel of the kingdom of God, 15 And saying, The time is fulfilled, and the kingdom of God is at hand: repent ye, and believe the gospel. 16 Now as he walked by the sea of Galilee, he saw Simon and Andrew his brother casting a net into the sea: for they were fishers. 17 And Jesus said unto them, Come ye after me, and I will make you to become fishers of men. 18 And straightway they forsook their nets, and followed him. 19 And when he had gone a little further thence, he saw James the [son] of Zebedee, and John his brother, who also were in the ship mending their nets. 20 And straightway he called them: and they left their father Zebedee in the ship with the hired servants, and went after him. 21 And they went into Capernaum; and straightway on the sabbath day he entered into the synagogue, and taught. 22 And they were astonished at his doctrine: for he taught them as one that had authority, and not as the scribes. 23 And there was in their synagogue a man with an unclean spirit; and he cried out, 24 Saying, Let [us] alone; what have we to do with thee, thou Jesus of Nazareth? art thou come to destroy us? I know thee who thou art, the Holy One of God. 25 And Jesus rebuked him, saying, Hold thy peace, and come out of him. 26 And when the unclean spirit had torn him, and cried with a loud voice, he came out of him. 27 And they were all amazed, insomuch that they questioned among themselves, saying, What thing is this? what new doctrine [is] this? for with authority commandeth he even the unclean spirits, and they do obey him. 28 And immediately his fame spread abroad throughout all the region round about Galilee. 29 And forthwith, when they were come out of the synagogue, they entered into the house of Simon and Andrew, with James and John. 30 But Simon's wife's mother lay sick of a fever, and anon they tell him of her. 31 And he came and took her by the hand, and lifted her up; and immediately the fever left her, and she ministered unto them. 32 And at even, when the sun did set, they brought unto him all that were diseased, and them that were possessed with devils. 33 And all the city was gathered together at the door. 34 And he healed many that were sick of divers diseases, and cast out many devils; and suffered not the devils to speak, because they knew him. 35 And in the morning, rising up a great while before day, he went out, and departed into a solitary place, and there prayed. 36 And Simon and they that were with him followed after him. 37 And when they had found him, they said unto him, All [men] seek for thee. 38 And he said unto them, Let us go into the next towns, that I may preach there also: for therefore came I forth. 39 And he preached in their synagogues throughout all Galilee, and cast out devils. 40 And there came a leper to him, beseeching him, and kneeling down to him, and saying unto him, If thou wilt, thou canst make me clean. 41 And Jesus, moved with compassion, put forth [his] hand, and touched him, and saith unto him, I will; be thou clean. 42 And as soon as he had spoken, immediately the leprosy departed from him, and he was cleansed. 43 And he straitly charged him, and forthwith sent him away; 44 And saith unto him, See thou say nothing to any man: but go thy way, shew thyself to the priest, and offer for thy cleansing those things which Moses commanded, for a testimony unto them. 45 But he went out, and began to publish [it] much, and to blaze abroad the matter, insomuch that Jesus could no more openly enter into the city, but was without in desert places: and they came to him from every quarter. | |
| Comparing Matthew the 18th Book of the 2nd Cycle with the 18th Century | |
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| Mark 6 - Listen 1 And he went out from thence, and came into his own country; and his disciples follow him. 2 And when the sabbath day was come, he began to teach in the synagogue: and many hearing [him] were astonished, saying, From whence hath this [man] these things? and what wisdom [is] this which is given unto him, that even such mighty works are wrought by his hands? 3 Is not this the carpenter, the son of Mary, the brother of James, and Joses, and of Juda, and Simon? and are not his sisters here with us? And they were offended at him. 4 But Jesus said unto them, A prophet is not without honour, but in his own country, and among his own kin, and in his own house. 5 And he could there do no mighty work, save that he laid his hands upon a few sick folk, and healed [them]. 6 And he marvelled because of their unbelief. And he went round about the villages, teaching. 7 And he called [unto him] the twelve, and began to send them forth by two and two; and gave them power over unclean spirits; 8 And commanded them that they should take nothing for [their] journey, save a staff only; no scrip, no bread, no money in [their] purse: 9 But [be] shod with sandals; and not put on two coats. 10 And he said unto them, In what place soever ye enter into an house, there abide till ye depart from that place. 11 And whosoever shall not receive you, nor hear you, when ye depart thence, shake off the dust under your feet for a testimony against them. Verily I say unto you, It shall be more tolerable for Sodom and Gomorrha in the day of judgment, than for that city. 12 And they went out, and preached that men should repent. 13 And they cast out many devils, and anointed with oil many that were sick, and healed [them]. 14 And king Herod heard [of him]; (for his name was spread abroad:) and he said, That John the Baptist was risen from the dead, and therefore mighty works do shew forth themselves in him. 15 Others said, That it is Elias. And others said, That it is a prophet, or as one of the prophets. 16 But when Herod heard [thereof], he said, It is John, whom I beheaded: he is risen from the dead. 17 For Herod himself had sent forth and laid hold upon John, and bound him in prison for Herodias' sake, his brother Philip's wife: for he had married her. 18 For John had said unto Herod, It is not lawful for thee to have thy brother's wife. 19 Therefore Herodias had a quarrel against him, and would have killed him; but she could not: 20 For Herod feared John, knowing that he was a just man and an holy, and observed him; and when he heard him, he did many things, and heard him gladly. 21 And when a convenient day was come, that Herod on his birthday made a supper to his lords, high captains, and chief [estates] of Galilee; 22 And when the daughter of the said Herodias came in, and danced, and pleased Herod and them that sat with him, the king said unto the damsel, Ask of me whatsoever thou wilt, and I will give [it] thee. 23 And he sware unto her, Whatsoever thou shalt ask of me, I will give [it] thee, unto the half of my kingdom. 24 And she went forth, and said unto her mother, What shall I ask? And she said, The head of John the Baptist. 25 And she came in straightway with haste unto the king, and asked, saying, I will that thou give me by and by in a charger the head of John the Baptist. 26 And the king was exceeding sorry; [yet] for his oath's sake, and for their sakes which sat with him, he would not reject her. 27 And immediately the king sent an executioner, and commanded his head to be brought: and he went and beheaded him in the prison, 28 And brought his head in a charger, and gave it to the damsel: and the damsel gave it to her mother. 29 And when his disciples heard [of it], they came and took up his corpse, and laid it in a tomb. 30 And the apostles gathered themselves together unto Jesus, and told him all things, both what they had done, and what they had taught. 31 And he said unto them, Come ye yourselves apart into a desert place, and rest a while: for there were many coming and going, and they had no leisure so much as to eat. 32 And they departed into a desert place by ship privately. 33 And the people saw them departing, and many knew him, and ran afoot thither out of all cities, and outwent them, and came together unto him. 34 And Jesus, when he came out, saw much people, and was moved with compassion toward them, because they were as sheep not having a shepherd: and he began to teach them many things. 35 And when the day was now far spent, his disciples came unto him, and said, This is a desert place, and now the time [is] far passed: 36 Send them away, that they may go into the country round about, and into the villages, and buy themselves bread: for they have nothing to eat. 37 He answered and said unto them, Give ye them to eat. And they say unto him, Shall we go and buy two hundred pennyworth of bread, and give them to eat? 38 He saith unto them, How many loaves have ye? go and see. And when they knew, they say, Five, and two fishes. 39 And he commanded them to make all sit down by companies upon the green grass. 40 And they sat down in ranks, by hundreds, and by fifties. 41 And when he had taken the five loaves and the two fishes, he looked up to heaven, and blessed, and brake the loaves, and gave [them] to his disciples to set before them; and the two fishes divided he among them all. 42 And they did all eat, and were filled. 43 And they took up twelve baskets full of the fragments, and of the fishes. 44 And they that did eat of the loaves were about five thousand men. 45 And straightway he constrained his disciples to get into the ship, and to go to the other side before unto Bethsaida, while he sent away the people. 46 And when he had sent them away, he departed into a mountain to pray. 47 And when even was come, the ship was in the midst of the sea, and he alone on the land. 48 And he saw them toiling in rowing; for the wind was contrary unto them: and about the fourth watch of the night he cometh unto them, walking upon the sea, and would have passed by them. 49 But when they saw him walking upon the sea, they supposed it had been a spirit, and cried out: 50 For they all saw him, and were troubled. And immediately he talked with them, and saith unto them, Be of good cheer: it is I; be not afraid. 51 And he went up unto them into the ship; and the wind ceased: and they were sore amazed in themselves beyond measure, and wondered. 52 For they considered not [the miracle] of the loaves: for their heart was hardened. 53 And when they had passed over, they came into the land of Gennesaret, and drew to the shore. 54 And when they were come out of the ship, straightway they knew him, 55 And ran through that whole region round about, and began to carry about in beds those that were sick, where they heard he was. 56 And whithersoever he entered, into villages, or cities, or country, they laid the sick in the streets, and besought him that they might touch if it were but the border of his garment: and as many as touched him were made whole. | |
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