What is the technology behind the bullet train?

On the train itself are superconducting electromagnets, called bogies. When stopped, the train rests on rubber wheels. To begin motion, the train moves forward slowly on these wheels, allowing the magnets beneath the train to interact with those of the guideway.



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The shinkansen train uses superconducting maglev (short for magnetic levitation) to achieve these incredible speeds. As the train leaves the station, it's rolling on wheels. But as it speeds up, the wheels retract, and the power of magnets allows the vehicle to hover four inches above the ground.

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On the train itself are superconducting electromagnets, called bogies. When stopped, the train rests on rubber wheels. To begin motion, the train moves forward slowly on these wheels, allowing the magnets beneath the train to interact with those of the guideway.

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Japan: L0 Series Maglev (374 mph) Although not yet in regular service, this Japanese train, which is currently being developed and tested by the Central Japan Railway Company (JR Central), holds the land speed record for rail vehicles, clocking in at 374 mph.

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Maglev, which is derived from the term 'magnetic levitation', is a transport method that employs magnetic levitation to move the vehicle without touching the ground. With maglev technology, a vehicle travels along a 'guideway' using magnets to create both lift and propulsion.

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Compartments and charges. Japan Rail Pass users can use this train without additional charge if traveling on a “Nobi Nobi” carpeted seat, “Dreamcar” reclining seat or a simple non reserved seat. There are also sleeping compartments on-board requiring an extra fare, starting at 9,500yen.

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Human drivers normally accelerate, decelerate and stop the Shinkansen at the right place at the station platforms. The automatic train control (ATC) system currently in place supports the driver by determining the optimal speed limit according to data such as the distance from the train ahead.

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China initially relied on high-speed technology imported from Europe and Japan to establish its network. Global rail engineering giants such as Bombardier, Alstom and Mitsubishi were understandably keen to co-operate, given the potential size of the new market and China's ambitious plans.

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Big pressure changes outside the train can have an effect in the carriages themselves, particularly where there's not much clearance between the top of the train and the roof of the tunnel. This is why your ears sometimes pop when travelling through tunnels at high speed.

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The defining features of these and other recent Shinkansen trains are their extraordinarily long noses, designed not to improve their aerodynamics, but primarily to eliminate sonic booms caused by the “piston effect” of trains entering tunnels and forcing compression waves out of the other end at supersonic speeds.

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Since velocity is given to be constant, there is no acceleration. At constant velocity (for the train), if you jump, you'll land in the same place.

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Bullet trains have (streamlined / sharpened) bodies.

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The magnetized coil running along the track, called a guideway, repels the large magnets on the train's undercarriage, allowing the train to levitate between 0.39 and 3.93 inches (1 to 10 centimeters) above the guideway [source: Boslaugh].

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Novocherkassk 4E5K for Russian Railways, 17,838 horsepower All hail Mother Russia: with 17,838 horsepower, the Novocherkassk 4E5K locomotive is the most powerful in the world. It seems like digital espionage isn't Russia's only path to power.

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The Eurostar travels through the Channel Tunnel at a speed of 100 miles per hour (160kph) although when the train is outside the tunnel it reaches speed of 186 miles per hour (300 kph).

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Notable HSR lines in China include the Beijing–Guangzhou high-speed railway which at 2,298 km (1,428 mi) is the world's longest HSR line in operation, and the Beijing–Shanghai high-speed railway with the world's fastest operating conventional train services.

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Hideo Shima (? ??, Shima Hideo, 20 May 1901 – 18 March 1998) was a Japanese engineer and the driving force behind the building of the first bullet train (Shinkansen).

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The first high-speed rail system began operations in Japan in 1964, and is known as the Shinkansen, or “bullet train.” Today, Japan has a network of nine high speed rail lines serving 22 of its major cities, stretching across its three main islands, with three more lines in development.

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The Superconducting Maglev is equipped with a braking system capable of safely stopping a train traveling at 311mph. Regenerative braking is normally used for deceleration, but if it becomes unavailable, the Superconducting maglev also has wheel disc brakes and aerodynamic brakes.

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