Hyperloop Transportation System
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The document discusses Elon Musk's proposed Hyperloop transportation system, which would transport passengers at high speeds through a low-pressure tube between Los Angeles and San Francisco. It describes the key components of Hyperloop, including capsules that would carry passengers through the tube propelled by linear electric motors, and would reach top speeds of 760 mph. The document outlines the proposed route from LA to San Francisco, and highlights advantages such as high speed, low cost, and environmental friendliness compared to other transportation options. It also notes potential limitations in the form of high estimated construction costs.
Hyperloop Transportation System
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- 2. Presented by, DRONAMRAJU VAMSI 2ND CSE,SEC-E VIGNAN’S UNIVERSITY 2
- 3. Introduction Components Proposed route of Hyper loop Advantages Limitations Video Conclusion 3
- 4. 1. RAIL relatively slow and expensive 2. ROAD relatively slow 3. WATER relatively slow 4. AIR expensive 4
- 5. PIPELINE ? 5
- 6. Hyperloop is a new mode of transport ? Proposed by ELON MUSK American business magnate, investor, and inventor. He is currently the CEO & CTO of SpaceX and CEO & Chief Product Architect of Tesla Motors. A high-speed train that promises travel at twice the speed of a commercial aircraft, transporting passengers from Los Angeles to San Francisco in just 30 minutes. 6
- 7. A high-level alpha design for the system was published on August 12, 2013, in a whitepaper posted to the Tesla and SpaceX blogs. Musk has also said he invites feedback to "see if the people can find ways to improve it"; it will be an open source design, with anyone free to use and modify it. 7
- 8. A Hyperloop would be "an elevated, reduced-pressure tube that contains pressurized capsules driven within the tube by a number of linear electric motors.” This system can achieve an average speed of 598 mph (962 km/h), and a top speed of 760 mph (1,220 km/h). 8
- 9. Hyperloop consists of a low pressure tube with capsules that are transported at both low and high speeds throughout the length of the tube. Hyperloop conceptual diagram. 9
- 10. Hyperloop tube stretching from Los Angeles to San Francisco. 10
- 11. Passengers may enter and exit Hyperloop at stations located either at the ends of the tube, or branches along the tube length. 11
- 12. 1. Capsule 2. Tube 3. Propulsion 4. Route 12
- 13. Sealed capsules carrying 28 passengers each that travel along the interior of the tube depart on average every 2 minutes from Los Angeles or San Francisco (up to every 30 seconds during peak usage hours). The maximum width is 4.43 ft (1.35 m) and maximum height is 6.11 ft (1.10 m). With rounded corners, this is equivalent to a 15 ft2 (1.4 m2) frontal area, not including any propulsion or suspension components. 13
- 14. The capsules are accelerated via a magnetic linear accelerator affixed at various stations on the low pressure tube with rotors contained in each capsule. Hyperloop passenger capsule subsystem notional locations (not to scale). 14
- 15. For travel at high speeds, the greatest power requirement is normally to overcome air resistance. Aerodynamic drag increases with the square of speed, and thus the power requirement increases with the cube of speed. For example, to travel twice as fast a vehicle must overcome four times the aerodynamic resistance, and input eight times the power. 15
- 16. Just as aircraft climb to high altitudes to travel through less dense air, Hyperloop encloses the capsules in a reduce pressure tube. The pressure of air in Hyperloop is about 1/6 the pressure of the atmosphere on Mars. This is an operating pressure of 100 Pascal’s, which reduces the drag force of the air by 1,000 times relative to sea level conditions and would be equivalent to flying above 150,000 feet altitude 16
- 17. The capsules are separated within the tube by approximately 23 miles (37 km) on average during operation. The capsules are supported via air bearings that operate using a compressed air reservoir and aerodynamic lift. 17
- 18. Hyperloop passenger transport capsule conceptual design sketch. 18
- 19. Hyperloop passenger capsule version with doors open at the station. 19
- 20. Hyperloop passenger capsule version cutaway with passengers onboard. 20
- 21. Hyperloop passenger transport capsule conceptual design rendering. 21
- 22. Streamlines for capsule traveling at high subsonic velocities inside Hyperloop. 22
- 23. The tube is made of steel. Two tubes will be welded together in a side by side configuration to allow the capsules to travel both directions. Pylons are placed every 100 ft (30 m) to support the tube. Solar arrays will cover the top of the tubes in order to provide power to the system. 23
- 24. The inner diameter of the tube is optimized to be 7 ft 4 in. (2.23 m) which is small enough to keep material cost low while large enough to provide some alleviation of choked air flow around the capsule. The tube cross-sectional area is 42.2 ft2 (3.91 m2) giving a capsule/tube area ratio of 36% or a diameter ratio of 60%. 24
- 25. Hyperloop capsule in tube cutaway with attached solar arrays. 25
- 26. high-speed transport more generally, have historically been impeded by the difficulties in managing friction and air resistance, both of which become substantial when vehicles approach high speeds. vactrain concept : tubes kept at a complete vacuum, allowing for theoretical speeds of thousands of miles per hour. 26
- 27. The expected pressure inside the tube will be maintained around 100pa (less pressure). This low pressure minimizes the drag force on the capsule while maintaining the relative ease of pumping out the air from the tube. 27
- 28. Linear accelerators are constructed along the length of the tube at various locations to accelerate the capsules. Stators are located on the capsules to transfer momentum to the capsules via the linear accelerators. 28
- 29. Rotor (mounted to capsule) Stator (mounted to tube) Rotor and stator 3D diagram 29
- 30. There will be a station at Los Angeles and San Francisco. Several stations along the way will be possible with splits in the tube. The majority of the route will follow highway and the tube will be constructed in the median 30
- 31. Overview of Hyperloop route from Los Angeles to San Francisco. 31
- 32. Total cost of the Hyperloop passenger transportation system. 32
- 33. Ready when the passenger is ready to travel (road) Inexpensive (road) Fast (air) Environmentally friendly (rail/road via electric cars) Sustainable (uses solar energy) Runs trough the median of existing highway 33
- 34. A number of economists and transportation experts have expressed the belief that the US$6 billion price tag dramatically understates the cost of designing, developing, constructing and testing an all-new form of transportation. 34
- 35. Hyperloop is a new idea of solar powered transportation system with high speed of up to 800mph, which is developed by US entrepreneur Elon Musk. He proposed this transportation system to the route from the Los Angeles region to the San Francisco Bay Area. In this presentation, the possibilities and construction of the system is explained with the details of different components of the system. The technical details of the Hyperloop in this presentation are based on the design details released by Elon musk on 12th august, 2013. 35
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- 37. THANK YOU 37