What must engineers consider when designing roller coasters?

To provide the most exciting, yet safe, ride possible, an engineer must have an excellent understanding of force, gravity, motion, momentum, and potential and kinetic energy. The basic roller coaster shape (a series of progressively smaller hills) has been used since the roller coaster was created in the 1400s.



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What 2 things must engineers consider when designing a roller coaster? Some of these things are the layout of the ride, how tall and fast they want it to be, and most importantly, safety. They use lots of math and physics in order to make their design, and know that it will be safe and work.

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Potential and Kinetic Energy It helps the car's weight maintain momentum as it flies down the track. Other forces try to diminish that energy, such as friction and air resistance, but engineers design coasters to be resilient against these factors.

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The problem: Even the slightest imperfection in track alignment can cause excess physical strain on riders' bodies. A roller coaster that cannot be ridden - that has to be a builder's worst nightmare. Safety is the top priority. Nonetheless, designers strive to provide riders with new and greater thrills.

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The coaster cars are equipped with something called anti-rollback dogs. These devices bump against metal teeth that usually flank the chain lift. This is in case the ride comes to a stop on the lift hill, the train will stay secure and will not roll back.

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There must be at least one hill, one loop AND one turn. Your roller coaster also needs to be safe for the public.

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A roller coaster is a machine that uses gravity and inertia to send a train of cars along a winding track. The combination of gravity and inertia, along with g-forces and centripetal acceleration give the body certain sensations as the coaster moves up, down, and around the track.

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Variables an engineer might consider to change the force experienced by the rider include, heightening the coaster, added loops or sharp turns and/or increasing the mass of the cars.

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The track is usually formed in sections from a pair of welded round steel tubes held in position by steel stanchions attached to rectangular box girder or thick round tubular track supports. All exposed steel surfaces are painted. Steel coasters can be just as complex as wooden ones.

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Gravity, inertia, g-forces, and centripetal acceleration give riders constantly changing forces which create certain sensations as the coaster travels around the track.

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Two of the most significant are friction and air resistance. As you ride a roller coaster, its wheels rub along the rails, creating heat as a result of friction. This friction slows the roller coaster gradually, as does the air that you fly through as you ride the ride.

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Roller coasters are driven almost entirely by basic inertial, gravitational and centripetal forces, all manipulated in the service of a great ride. Amusement parks keep upping the ante, building faster and more complex roller coasters, but the fundamental principles at work remain the same.

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Designers test roller coasters with water-filled dummies. “It covers every aspect of coasters. The rides are tested with what we call water dummies, or sometimes sandbags.” The inanimate patrons allow designers to figure out how a coaster will react to the constant use and rider weight of a highly trafficked ride.

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Theming is good eye candy for the onlookers, but elements, speed, height, and good pacing is what makes a coaster great. I think the main ones are excitement, speed, and theming. Without any one of these, a coaster won't do as well. Air time helps, too, but doesn't matter too much.

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In roller coasters, the two forms of energy that are most important are gravitational potential energy and kinetic energy. Gravitational potential energy is the energy that an object has because of its height and is equal to the object's mass multiplied by its height multiplied by the gravitational constant (PE = mgh).

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In a roller coaster loop, riders are pushed inwards toward the center of the loop by forces resulting from the car seat (at the loop's bottom) and by gravity (at the loop's top). Energy comes in many forms. The two most important forms for amusement park rides are kinetic energy and potential energy.

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Gravity is counteracted by centripetal force, due to acceleration, which is the force that pushes you into your seat. Roller coaster, Seaside Heights, New Jersey.

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Most importantly, the coaster must have enough speed to travel all the way through the loop without stopping. Originally, engineers designed round loops. However, just as a coaster loses kinetic energy, expressed as speed, as it travels up a hill, it also loses speed near the top of a loop.

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