NationMaster - Encyclopedia: DBAG Class 101

DBAG Class 101 is a class of three-phase electric locomotives built by Adtranz and operated by DB Fernverkehr in Germany. 145 locomotives were built between 1996 and 1999 to replace the 30-year old and aging Class 103 as the flagship of DB AG. This class encompasses the latest generation of locomotives of the DB. Image File history File linksMetadata Download high-resolution version (2304x1728, 2136 KB) File links The following pages on the English Wikipedia link to this file (pages on other projects are not listed): DBAG Class 101 Metadata This file contains additional information, probably added from the digital camera or scanner used... Adtranz was a German rail rolling stock equipment manufacturer which designed rail cars and engines. ... The AAR wheel arrangement system is a method of classifying locomotive (or unit) wheel arrangements that was developed by the Association of American Railroads. ... The UIC classification is a comprehensive system for describing the wheel arrangement of locomotives. ... Rail gauge is the distance between the inner sides of the two parallel rails that make up a railway track. ... A millimetre (American spelling: millimeter, symbol mm) is an SI unit of length that is equal to one thousandth of a metre. ... A foot (plural: feet) is any of several old units of distance or length, measuring around a quarter to a third of a meter. ... Mid-19th century tool for converting between different standards of the inch An inch is an Imperial and U.S. customary unit of length. ... Tractive effort is the pulling force exerted, normally by a locomotive, though the term could also be used for anything else that hauls a load. ... The PunktfÃ¶rmige Zugbeeinflussung, abbreviated to PZB, is a train safety system used in Germany and Austria. ... Track equipped with LZB loops. ... Modern three-phase AC locomotive (DBAG Class 152) A GG1 An electric locomotive is a locomotive powered by electric motors which draws current from an overhead wire (overhead lines), a third rail, or an on-board storage device such as a battery or a flywheel energy storage system. ... Adtranz was a German rail rolling stock equipment manufacturer which designed rail cars and engines. ... DB Fernverkehr AG is a semi-independent division of Deutsche Bahn AG that operates long-distance passenger trains in Germany. ... 1996 (MCMXCVI) was a leap year starting on Monday of the Gregorian calendar, and was designated the International Year for the Eradication of Poverty. ... 1999 (MCMXCIX) was a common year starting on Friday, and was designated the International Year of Older Persons by the United Nations. ... The Baureihe 103 is a class of electric locomotives in Germany, originally operated by Deutsche Bundesbahn. ...

New Jersey Transit's ALP-46 locomotive is derived from the Class 101. The New Jersey Transit Corporation (NJ Transit) is a statewide public transportation system serving the state of New Jersey, and Orange and Rockland counties in New York. ...

Background/Development history

In the early 1990s it became apparent that the current electric locomotives serving the heavy and fast (speeds over 160 km/h) InterCity service, the Class 103, were wearing out. The annual mileage of the class 103 locomotives of up to 350,000 km, and the faster and heavier trains, for which these units were not constructed, meant increasing damage to the control units, traction motors, and bogie frames. In addition, as part of the Program DB 90, and to optimize costs, the theory of "Drive to Deterioration" (Fahren auf Verschleiß) was utilized, which strengthened the negative effect on the units. Image File history File linksMetadata BR101-Eisenbahnfotograph. ... Image File history File linksMetadata BR101-Eisenbahnfotograph. ... Dortmund Hauptbahnhof (usually translated from German as Dortmund Central Station, short form: Dortmund Hbf) is the Hauptbahnhof for the city of Dortmund in Germany. ... The Baureihe 103 is a class of electric locomotives in Germany, originally operated by Deutsche Bundesbahn. ...

Another class in similar service, the 60 units of the class 120 three-phase locomotive, had also reached a stage where both their age and their construction meant ever increasing technical problems. Finally, there were 130 locomotives of the former East German class 112, capable of speeds up to 160 km/h, but these units were no longer contemporary, and were going to require expenditures in terms of cost of upkeep similar to the existing other classes in this service. In addition, this class was something of a political step child, and the DB wished for a truly new design along the lines of the three-phase class 120 locomotives. Categories: | | ...

In 1991 DB first requested that the firms in Germany's railway industry offer designs for new high-performance all-purpose locomotives, using the program name class 121. Designs for an all-purpose three-phase locomotive with output in excess of 6 mega watt (MW) and top speeds of 200 km/h were offered, which turned out to be much too expensive for the DB. In addition, due to the separation of services into different areas of operation, suddenly an all-purpose locomotive was no longer required.

In December 1993 a second, Europe-wide bidding process was initiated, allowing the bidding companies more room for their own ideas. Over 30 designs were offered, from below 5 MW to over 6 MW output, including powered head units (Triebkopf) and units with only one driver's cab (similar to the E464, in service today in Italy). The latter idea was not pursued by DB, since it proved too inflexible in service trials, and the price difference turned out to be minimal.

The non-German firms Skoda, Ansaldo und GEC-Alsthom were eliminated at an early stage from the contest, as the local construction methods and achievements of existing units did not find favor with the DB. On the other hand, the German firms Siemens, AEG, and ADtranz were able to shine with their designs utilizing modular construction of locomotives, which were customizable to the requirements of different customers, and showed many elements of commonality amongst each module. The title given to this article is incorrect due to technical limitations. ... The Ansaldo was an Italian automobile manufactured by an armaments concern from 1921 to 1931. ... Siemens AG (FWB:SIE, NYSE: SI) is the worlds largest electronics company. ... AEG volt-metre designed by Peter Behrens AEG (Allgemeine ElektrizitÃ¤ts-Gesellschaft) (English Translation: General Electricity Company) was a German producer of electronics and electrical equipment. ... Adtranz was a German rail rolling stock equipment manufacturer which designed rail cars and engines. ...

Siemens and Krauss-Maffei already had a prototype of the Eurosprinter, class 127, in service, and AEG Schienenfahrzeugtechnik was able to very quickly present a working demonstration prototype of their concept 12X, the future 128 001. ABB Henschel had no modern prototypes, but only a concept named Eco2000, and a technology demonstration based on two already 15-year old rebuilt Class 120 locomotives. Siemens AG (FWB:SIE, NYSE: SI) is the worlds largest electronics company. ... Krauss-Maffei is an injection molding machine manufacturer based in Germany. ... AEG volt-metre designed by Peter Behrens AEG (Allgemeine ElektrizitÃ¤ts-Gesellschaft) (English Translation: General Electricity Company) was a German producer of electronics and electrical equipment. ... German class 01 locomotive Henschel & Son (Henschel & Sohn) is a German company, situated in Kassel. ... 120 143 at Dresden The 120 is a class of electric locomotives operated by DB Fernverkehr in Germany. ...

To develop the components for the Eco2000, ABB Henschel used two Class 120 prototype locomotives, 120 004 and 005, which had been converted by ABB in 1992, in order to test new technologies in practice. 120 005 received new electric power converters based on GTO-Thyristors, as well as new on-board electronics. 120 004 additionally received flexi-float bogies adapted from ICE units with driving rods instead of pivot pins, disc brakes, and it utilized a new biodegradable polyol-ester cooling agent for its main transformer. Both of these reconfigured locomotives covered large distances in regular IC service without disruption. Circuit symbol for a thyristor The thyristor is a solid-state semiconductor device with four layers of alternating N and P-type material. ... The name polyols refers to chemical compounds containing multiple hydroxyl groups. ... General formula of a carboxylate ester. ...

To the surprise of many observers, in December 1994 DB signed a Letter of Intent with ABB Henschel, which resulted in the firm order of 145 locomotives on 28 July 1995. The first class 101 locomotive was ceremonially presented on 1 July 1996. This unit, as was the case for the first four locomotives of this class, utilized the orient red color scheme. ABB Henschel had by this time merged with AEG Schienenfahrzeugtechnik to become ADtranz, and some of the bodies were now being built in Henningsdorf, while others were built in Kassel. The bodies that were manufactured in Henningsdorf were transported by flat bed trucks via the Autobahn to Kassel, where they were attached to the bogies built in Breslau in Poland, and were also otherwise equipped to be ready for service. On 19 February 1997, the first class 101 locomotive was officially put into service. German class 01 locomotive Henschel & Son (Henschel & Sohn) is a German company, situated in Kassel. ... AEG volt-metre designed by Peter Behrens AEG (Allgemeine ElektrizitÃ¤ts-Gesellschaft) (English Translation: General Electricity Company) was a German producer of electronics and electrical equipment. ... Adtranz was a German rail rolling stock equipment manufacturer which designed rail cars and engines. ... Kassel (until 1926 officially Cassel) is a city situated along the Fulda River in northern Hessen, Germany, one of the two sources of the Weser river . ... It has been suggested that this article be split into multiple articles accessible from a disambiguation page. ... Wrocław. ...

Body Design

The class 101 locomotives initially stand out due to an unusually large slope at the front and back. The body had to be both as aerodynamic as possible, and at the same time be as cost-effective as possible. For these reasons the designers passed on a front with multiple curved areas. Further tapering of the front was also rejected, as this would have meant increasing the distance between locomotive and coaches, in cases where the two were separate. This would have negated the advantage of a more pointed front, due to the air turbulence created in the space between the vehicles. Image File history File links Download high-resolution version (803x604, 111 KB) Beschreibung Licensing File links The following pages on the English Wikipedia link to this file (pages on other projects are not listed): DBAG Class 101 ... Image File history File links Download high-resolution version (803x604, 111 KB) Beschreibung Licensing File links The following pages on the English Wikipedia link to this file (pages on other projects are not listed): DBAG Class 101 ... Image File history File links DBAG_101_Lok-WagenÃ¼bergang. ... Image File history File links DBAG_101_Lok-WagenÃ¼bergang. ...

In oder to build support structures for the undercarriage, massive C-sections were welded together with steel plate of various strength in Henningsdorf and in the ADtranz plant in Breslau. The buffers at either side of the front are designed to withstand pressures up to 1000 kN, while the front part under the top windows can handle pressure up 700 kN.

The front of the driver's cabs are made from 4 mm thick steel plate. The front window panes can be utilized on either side of the locomotive, and are simply glued into the body without window frame. The roof of the driver's cab is part of the body, not the roof. The four doors on the sides lead directly into the driver's cabs and are made of light alloy.

The side windows in the driver's cab in the class 101 featured swiveled windows, in order to avoid a window well, which often proved to be susceptible to corrosion (the windows in class 145 and 152 were continued to be counter-sunk). All windows and doors are completely pressurized due to the use of a special sealant section.

The body side panels are 3 mm thick, and are carried by columnar sections, in between which parts of the cabling channels are laid. The side panels encompass the area from the back end of the driver's cabs up to the beginning of the sloped roof section, which is part of the removable roof sections. They end toward the top in a hollow section, which then takes on the roof sections. The side panels are connected together by two welded wicket/belt made up of steel plate.

The roof is made of aluminum and is made up of three separate sections. The fan grills and roof slope area belong to the roof sections, and can be removed as part of the roof, making the entire width of the body available for work on the machinery inside. The roof sections are resting on the side panels, their connecting belts, and the fixed roofs of the driver's cabs, and a floating seal is built into the sections. The roof sections are completely flat for aerodynamic reasons, with the exception of the pantographs, the signal horns, and the antenna for radio communication.

Since everything on the roof is mounted just a little under the top edge of the roof of the driver's cab, almost nothing catches any wind - even a lowered pantograph is difficult to detect. In comparison to other locomotives, the pantographs are mounted "the wrong way around" - the hinges are pointing inwards. This is also for aerodynamic reasons - since the pantograph rocker needs to be located above the center of the bogies, the pantographs would have protruded into to raised roof of the driver's cab.

A special feature in class 101 units are the bogie side frame covers. They are mounted alongside the frame and cover the area down to the wheel bearings.

Bogies/trucks

ADtranz and Henschel aimed to develop bogies for the class 101 that would allow for the maximum possible latitude for future evolution. Therefore the bogies were designed for top speeds of 250 km/h and are derived directly from the ICE design, even though the locomotives of class 101 were only capable of maximum speeds of 220 km/h. In addition, the bogies were designed to be able to support the wheel set of other gauges. It is also possible to install a radially adjustable axle, such as is in service in class 460 of the SBB (Swiss Railways), but the DB elected to go without this option. Adtranz was a German rail rolling stock equipment manufacturer which designed rail cars and engines. ... Henschel & Son, during World War II, was the primary manufacturer of the Panzer VI. Henschel aircraft and missiles included: Henschel Hs 117 Schmetterling (Butterfly), surface-to-air missile (rocket-engined) Henschel Hs 121, fighter + trainer (prototype) Henschel Hs 123, ground-attack (biplane) Henschel Hs 124, heavy fighter + bomber (prototype) Henschel... SBB (first know as Silesian Blues Band, later as Szukaj, Burz, Buduj â€“ Polish for Search, Break up, Build) Polish rock band formed in 1971 in Siemianowice by JÃ³zef Skrzek, Polish multi-instrumentalist and vocalist. ...

Notwithstanding that the class 101 bogies are redeveloped from bogies on ICE trains, there are significant differences in their operation. The bogies of class 101 units make a compact impression, while the bogies on the ICE trains do not seem quite as compressed. The reason for this is that the bogies for the class 101 locomotives needed to be designed for both sound straight-ahead travel, as well as for good mobility in curves. This necessitated the use of a short wheel set interval, and large wheels. The bogies in the ICE trains did not need to take into account some of the tight curves that the class 101 trains need to handle. Specifically, the wheel set interval was reduced from 3,000 mm in the ICE to 2,650 mm for the class 101 units.

Using these compact bogies resulted in such a significant decrease in the relative movement between body and bogies, that is became possible to run the connecting cables to the motor outside of the ventilation ducts. This simplified the construction and resulted in a longer life cycle.

The bogies consist of the two lateral main beams, and the two cross beams at each end; there is no middle welded cross beam. The transfer of pulling and braking power from bogie to locomotive takes place via two rods, which connect the locomotive via pivot pin to the bogie. The pivot pins are mounted with a slight slant to enable the formation of a right angle to the also slightly slanted rods. The rods are spring mounted at about 40 mm to the pivot pin, so that the movement of the bogie could be balanced.

The hollow axles, made from a chrome-molybdenum alloy, carry the massive wheels and the wheel set bearings at each end. The wheel size is (the in Germany most common size of) 1,250 mm, with a minimum of 1,170 mm after wear. The axles are mounted via hollow shafts into the gearbox casing, which, together with the traction motor, are designated the "integrated common drive train", or IGA. Both the manufacturer and the DB were thereby hoping for greatly reduced maintenance costs, with its outstanding (and in 120 004 proven)oil leak tightness, which is also to the benefit of greater environmental protection.

The power transmission to the axle and shaft takes place via a universal joint (also known as a Hooke's joint or Cardan joint) with rubber elements. The two wheels of each bogie are attached with six very large bolts, which are visible from the platform.

Brake system and traction motors

On the hollow shafts there are two ventilated disc brakes, for which there is enough room due to the missing cross beam and pivot pin, as mentioned above. The disc brakes are separate and are ventilated from the inside. They can be serviced or replaced from below, without needing to take out the entire axle. During regular braking, primarily the regenerative brake is used, and the traction motor serves as the generator. The cooperation between disc brakes and regenerative brakes controls the automatic drive and brake control.

Each wheel has its own brake cylinder, and each wheel set also features an additional brake cylinder for the spring brake, which operates as the hand brake/parking brake and can secure locomotive at up to 4 percent incline.

The traction motors, which are designed to be without housing, can reach top speeds of 220 km/h at a maximum of 3,810 revolutions per minute; the gear ration of 3.95 prevents revolutions over 4,000/min. Maximum output is 1,683 kW; the torque moves at 4.22kNm. The traction motor blowers are controlled by built-in sensors, and are powered by an electrical auxiliary inverter. The cooling air is transported in a closed air duct, which keeps the engine room clean. This cooling air flows into the traction motor via flexible bellows, moves through the "integrated common drive train", and is exhausted via openings in the gear box. A maximum of 2.1 cubic meters of air per second are conveyed by each blower, of which half a cubic meter is conveyed into the engine room. Each traction motor weighs 2,186 kg, and the entire bogie weighs in at about 17 tonnes.

The entire traction drive is mounted on an assisting beam in the center of the bogie, and attached to the outer sides via two pendulums. It is possible to mount in the center, since the bogies do not have pivot pins; the bogie is propped up above the frame by eight flexicoil springs. The resulting freedom of movement in all directions is limited by hydraulic buffers and rubber elements. By utilizing this flexicoil suspension, many components, which either wore out or had to be expensively maintained, were eliminated.

Compressed air system

The compressed air system in the class 101 is similar to the system found in other locomotives. Via air intake in the engine room, air is suctioned through a filter, and is compressed by a screw-type compressor to a maximum of 10 bar. The compressor is controlled by a pressure control device and automatically turns on at 8.5 bar, then shuts off at 10 bar. The compressed air is then conducted through an air conditioning unit and is stored in two 400-liter main air reservoirs. The entire system is protected against excess pressure by two safety valves, which kick in at 10.5 and 12 bar pressure. The compressor is also individually monitored, and shuts off at oil temperatures above 110 Celsius.

In cases where there is not enough air available at locomotive start-up, even though the system features an automatically operated shut-off valve at locomotive shut-down, it is possible to supply air to the pantographs and main switch with a battery-powered auxiliary compressor, up to a pressure of 7 bar.

To increase the transfer of train and brake power from the wheels to the rails, the locomotive can disperse sand onto the rails. The sand is stored in eight containers, one per wheel, on the undercarriage. When activated by the driver, compressed air is sent through the sand metering system, and sand is blown through downspouts to the front of the forward wheels in the direction of travel. At temperatures lower than 5 Celsius, this system is heated, and the sand is regularly mixed inside the containers.

In order to conserve the wheel flange, a biodegradable fat/oil is automatically sprayed via compressed air into the channel between wheel flange and wheel surface of the front wheel, based on the current speed.

On the roof of the each driver's cab are two whistles, which produce warning sounds of 370 and 660 Hz. These whistles are activated via a pressure valve located on the floor of the cab near the driver's feet, or via pneumatic pushbuttons located around the driver's cab.

Pantographs

The two pantographs of type DSA 350 SEK (recognizable as half-pantographs, as opposed to the diamond-shaped full pantographs) were originally developed by Dornier, and built in Berlin-Henningsdorf. Today, the firm Stemman-Technik GmbH in Schüttdorf are manufacturing and distributing these units. Dornier may refer to Claudius Dornier, original founder of Dornier GmbH Lindauer DORNIER GmbH FairchildDornier Dornier Medtech [1], maker of medical equipment e. ...

The pantographs are screw-mounted to the roof at three points. Pantograph 1 is connected directly through the roof to the main control switch in the engine room; pantograph 2 is connected via a cable splice running along the side wall of the engine room to the main switch. The contact shoes are outfitted with a monitoring system in case of contact shoe breakage. Inside of the contact shoe, which is made of coal, runs an air channel, which is overpressurized. In case of breakage, the air escapes, causing the pantograph to automatically retract, preventing possible damage to the overhead contact wire.

The pantographs are raised using compressed air, which is provided at 5 bar to the lifting cylinder. Raising the pantograph takes 5 seconds, while retraction takes 4 seconds. The contact shoe pushes against the contact wire with adjustable pressure of between 70 and 120 N. The driver controls the pantograph via a push button on the driver's desk (Up, Down, and Down + Sanding for emergency cases are the settings). The choice of which pantograph to use can be left up to the locomotive by the driver, which would automatically use the back pantograph in the direction of travel, or, in double heading, where two locomotives are coupled, it would be the front pantograph on the front locomotive, and the back pantograph on the back locomotive. Otherwise the driver, using a switch located on the battery control table in driver's cab 1, may raise one or the other, or both together. This is primarily an advantage during shunting/switching operation, where otherwise the change from one driver's cab to the other would mean the automatic switching from one pantograph to the other. In cases where the pantograph is being switched, the unit that was in the down position is lifted first, and once it is successfully pushed up against the contact wire, the pantograph that was in service is lowered.

The compressed air for the lifting and lowering of the pantograph, as well as for the contact shoe monitoring system, are supplied via two teflon-coated hoses on the roof, which have to withstand the 15,000 volts of contact wire voltage.

Transformer

In contrast to locomotives of other classes, the transformer in class 101 is hung underneath the floor of the engine room on the frame, which enabled a very clean and uncluttered configuration of the engine room. This also caused the design of the transformer to be quite different from previous locomotives. The tank is constructed of light weight steel, but needed to be rugged enough to withstand a minor derailment or other accident; hence, some areas were reinforced with stronger welded sections.

The transformer is cooled by a cooling agent made of a polyol-ester mix, which is recirculated by two independent canned motor pumps; these pumps make the occurrence of leaks almost impossible. Each pump can be sealed off separately, and can therefore be easily replaced. In cases where one pump fails, the cooling agent remains in the transformer tank; the transformer is capable of providing power at 65% of full capacity with just one pump in operation.

Software and other control systems

The class 101 units feature the automatic drive and brake control system (AFB, or Automatische Fahr- und Bremssteuerung), which assists the driver and enables the best possible acceleration and braking under all possible conditions. The AFB can also keep the locomotive at a constant speed.

Class 101 also was outfitted with the Superschlupfregelung, which controls the maximum number of rotations of the wheels per minute, and can automatically limit the rotations in order to avoid damage to the wheel surface. This enables the maximization of the functional grip between wheel and rail. This system requires very precise information on the current speed, which resulted in the installation of a radar system into the floor of the locomotive, which sends the required speed data to the computer system. It turned out that the radar was unnecessary, and that this control system functions well without the data provided by the radar.

The locomotives also feature the ABB-developed computerized 16-bit control system MICAS S. The control, monitoring, and diagnosis of the vehicle is done by a bus system. This type of system meant a large reduction in the amount of wiring, especially as compared to the class 120; much of the wiring is accommodated in the side walls of the body. ABB can mean: Gladynah Famas Guapa Akron and Barberton Belt Railroad (AAR reporting mark ABB) Allman Brothers Band, a southern rock band Anybody but Bush - a political slogan associated with the John Kerry campaign Asea Brown Boveri or ABB Group - a multinational industrial company specializing in power and automation technologies... Categories: | | ...

The central control unit (ZSG), which is at the core of the system, is present twice for redundancy. All data that is collected by the various onboard systems is sent to the ZSG for processing, and all commands that affect the vehicle are originated by the ZSG.

The ZSG consists of 4 processors, which monitor the train controls and safety systems, including the dead man's system. The safety system also includes the PZB 90, which enforces the adherence to signals and other regulations (i.e. approach to a stop signal at high speed, violations of prescribed speed) and may stop the train via emergency braking if necessary. Yet another safety system is the LZB 80, which keeps the train in constant contact with a central control point, where all trains on a line are monitored for location and speed. In the locomotives 101 140 to 144 the European Train Control System (ETCS) is being tested, which serves similar functions are just described, but is meant to do so on a Europe-wide basis.

Also included in the control systems is the electronic time table EBuLa, which assists in the tracking of scheduled times, speeds, temporary speed restrictions, and other irregularities on the line.

The diagnostic system DAVID was also further developed from the ICE version in class 101. This system enables the monitoring and diagnosis of failures, and delivers possible solutions in real time to the driver and the maintenance depot. In addition, maintenance times are shortened, since the maintenance area can prepare for issues already identified by querying the system at any time, as opposed to just at certain points in the network, as is the case for the ICE version of this system.

Literature

ISSN, or International Standard Serial Number, is the unique eight-digit number applied to a periodical publication including electronic serials. ...

External links

Classes of German electric locomotives

BR number: 101 | 103 | 104 | 109 | 110 | 111 | 112 | 112 alt | 113 | 114 | 114 alt | 115 | 116 | 117 | 118 | 119 | 120 | 132 | 139 | 140 | 141 | 142 | 143 | 144 | 145 (DB) | 145 (DB AG) | 146 | 150 | 151 | 152 | 152 (DB) | 155 | 156 | 160 | 163 | 169 | 171 | 175 | 180 | 181 | 182 | 182 alt | 183 | 184 | 185 | 188 | 189 | 191 | 193 | 194
Older, pre-1968 classes: E 03 | E 04 | E 05 | E 10 | E 10.12 | E 15 | E 16 | E 17 | E 18 | E 19 | E 21 | E 32 | E 36 | E 40 | E 41 | E 44 | E 50 | E 52 | E 60 | E 61 | E 62 | E 63 | E 69 | E 70.2 | E 71 | E 72 | E 73 | E 75 | E 77 | E 80 | E 91 | E 91³ | E 92 | E 93 | E 94 | E 95 | E 244 | E 310 | E 320 | E 344 | E 410
Classes of the GDR Reichsbahn: 204 | 211 | 212 | 218 | 230 | 242 | 243 | 244 | 250 | 251 | 252 | 254
Older DR classes: E 04 | E 05 | E 11 | E 17 | E 18 | E 21 | E 42 | E 44 | E 77 | E 94 | E 95 | E 251
Image File history File links Deutsche_Bahn_AG_logo. ... Modern three-phase AC locomotive (DBAG Class 152) A GG1 An electric locomotive is a locomotive powered by electric motors which draws current from an overhead wire (overhead lines), a third rail, or an on-board storage device such as a battery or a flywheel energy storage system. ... The Baureihe 103 is a class of electric locomotives in Germany, originally operated by Deutsche Bundesbahn. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The Baureihe 111 is a class of electric locomotives owned by Deutsche Bahn AG. // History Class 111 is the successor of the Class 110 express Einheitslokomotive. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... 120 143 at Dresden The 120 is a class of electric locomotives operated by DB Fernverkehr in Germany. ... The Baureihe E 40 is a German Einheits-Elektrolokomotive commissioned by the Deutsche Bundesbahn in 1955, designed for freight trains. ... The Baureihe E 40 is a German Einheits-Elektrolokomotive commissioned by the Deutsche Bundesbahn in 1955, designed for freight trains. ... The Baureihe E 41 is a German Einheits-Elektrolokomotive commissioned by the Deutsche Bundesbahn in 1956, intended for local traffic and branch lines. ... BLS class 485 is a TRAXX locomotive. ... BLS class 485 is a TRAXX locomotive. ... The 152 is a class of electric locomotives operated by DB Cargo in Germany, introduced in 1996. ... BLS class 485 is a TRAXX locomotive. ... The Baureihe 103 is a class of electric locomotives in Germany, originally operated by Deutsche Bundesbahn. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The class E 10 is an electric locomotive of the Deutsche Bundesbahn, introduced in 1952. ... The Baureihe E 40 is a German Einheits-Elektrolokomotive commissioned by the Deutsche Bundesbahn in 1955, designed for freight trains. ... The Baureihe E 41 is a German Einheits-Elektrolokomotive commissioned by the Deutsche Bundesbahn in 1956, intended for local traffic and branch lines. ... Disambiguation Page Global Depositary Receipt East Germany ...

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