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By Chris Pewick. Nathan Martens, and Cassie Ulfe.

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Presentation on theme: "By Chris Pewick. Nathan Martens, and Cassie Ulfe."— Presentation transcript:

1 By Chris Pewick. Nathan Martens, and Cassie Ulfe

2 Magnetic Fields Defined by Our text, Conceptual Physics, as “The region of magnetic influence around a magnetic pole or a moving charged particle” This region can be manipulated and utilized to improve many different aspects of our lives. Such as, transportation, medical procedures, and even space travel.

3 Maglev Trains Maglev = Magnetic Levitation Three primary functions Levitation or suspension Propulsion Guidance

4 Maglev Trains First proposed by Bachelet in France and Goddard in the United States in the early 1900’s 1934 Hermann Kemper of Germany receives a patent for the magnetic levitation of trains 1970 Test runs are conducted 2004 Shanghai Maglev Transportation Development Co., Ltd. opens their maglev for public use

5 Maglev Trains Relieve traffic congestion Travel at speeds of 300 mph non-stop until destination Very safe Many redundancies are integrated into the system ensuring that the magnets continue to work The train has auxiliary wheel to start up that could provide a safe landing should the magnets fail How it works

6 Maglev Heart Transplant Terumo Heart, Inc. makes a transplant called a DuraHeart A heart transplant that uses similar technology as the maglev train

7 Maglev Heart Transplant The transplant uses a small paddlewheel-like component, called an impeller to propel the blood, this system runs more smoothly and gently than other heart transplants. The paddle is suspended inside the device by magnets Better prevents clots and blood cell damage which could cause internal bleeding DuraHeart

8 Maglev Heart Transplant Has been used in over 70 patients in Europe The first American to receive the transplant was Anthony Shannon on July 30 th, 2008 Connected to his failing heart to help pump blood

9 Particle Accelerators A particle accelerator (or atom smasher, in the early 20th century) is a device that uses electric and magnetic fields to propel ions or charged subatomic particles to high speeds and to contain them in well-defined beams The Large Hadron Collider (LHC) is the world's largest and highest-energy particle accelerator. It is expected to address some of the most fundamental questions of physics, advancing the understanding of the deepest laws of nature. Consists of multiple circles the largest of which is approximately 17 miles in circumference It is located along the border of Switzerland and France

10 The Large Hadron Collider

11 Particle Accelerators The Large Hadron Collider was built by the European Organization for Nuclear Research (CERN) with the intention of testing various predictions of high-energy physics. It was built in collaboration with over 10,000 scientists and engineers from over 100 countries, as well as hundreds of universities and laboratories. The LHC accelerator was proposed in the 1980s and approved for construction by the CERN Council in late 1994 Digging began in 1998 and finished in 2003 Construction of the collider finished in 2008

12 Detectors like this one are placed on various points of the collider and measure and record data from the runs

13 Particle Accelerators Two beams of particles, propelled by magnets, travel at close to the speed of light with very high energies before colliding with one another They can attain speeds of just 3m/s short of the speed of light Studies and observations from the LHC could provide answers to questions regarding anti-matter, the big bang, mass of particles, additional dimensions and the string theory. They are guided around the accelerator ring by a strong magnetic field, achieved using superconducting electromagnets

14 Rocket Launch rails Using tracks similar to those used in maglev transportation rockets, shuttles and satellites could be launched into orbit

15 Rocket Launch Rails A full-scale, operational track would be about 1.5 miles long and capable of accelerating a vehicle to 600 mph in 9.5 seconds. Drastically reduce costs of launching into space Currently costs approximately $10,000 per pound to orbit payloads using rockets, with use of maglev technology this would go down to approximately $0.50 per pound

16 Conclusion Maglev technology is used in a variety of different ways Because of the high costs, it is very difficult to produce technology at such a sophisticated level. However, when this technology becomes commercialized, the prices could drop low enough for maglev technology to be used worldwide We believe that this technology will eventually produce a positive out-come for our global society

17 References equipment/maglev-train.htm equipment/maglev-train.htm transportation/maglev-technology.html transportation/maglev-technology.html caregivers/duraheart caregivers/duraheart

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