Motion problem - Shock drop ride

In summary, a ride at a theme park involves a 10 person carriage with a total mass of 750kg ascending and descending vertically. The carriage rises to the top and waits for 2 seconds before dropping at a rate of 10ms-2 for 3.5m. The brakes are applied for 0.8m near the bottom of the ride. With the given information, we can use the equations v=u+at and s=1/2(u+v)t to calculate how long the carriage is in freefall until the brakes are applied.
  • #1
09jk
2
0

Homework Statement


a ride at a them park is a vertically ascending/decending ride. The total mass of the 10 person carriage is 750kg (people included). the ride rises up to the top of the ride until stationary waits for 2 seconds and then drops at a rate of 10ms-2 for 3.5m. when near the bottom of the ride, the carriages brakes are applied for 0.8m.

a) how long is the carriage in freefall until the brakes are applied?

Homework Equations


not too sure, but i think you'll probably require:
v=u+at
s=1/2(u+v)t


The Attempt at a Solution


to be honest, i have no idea where to begin :eek:
thanks
 
Last edited:
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  • #2
hello,I suppose you'ld not need most of the data given.
We can assume [tex]g=10ms^{-2}[/tex]

now we know distance covered,the acceleration,the initial velocity.
Just put in formulas
 
Last edited:
  • #3
for any help

I would approach this problem by first calculating the initial velocity of the carriage as it starts its descent. We can use the equation v = u + at, where v is the final velocity (0 m/s since it comes to a stop), u is the initial velocity (unknown), a is the acceleration (10 ms^-2), and t is the time (2 seconds). Solving for u, we get u = 20 m/s.

Next, we can use the equation s = 1/2(u+v)t to find the distance the carriage travels during the 2 seconds it is stationary at the top. We know s (the distance) is 0 since it is stationary, u (the initial velocity) is 20 m/s, v (the final velocity) is 0 m/s, and t (the time) is 2 seconds. Solving for s, we get s = 20 meters.

Now, we can use the equation s = ut + 1/2at^2 to find the distance the carriage travels during the 3.5 meters of freefall. We know s (the distance) is 3.5 meters, u (the initial velocity) is 20 m/s, a (the acceleration) is 10 ms^-2, and t (the time) is unknown. Solving for t, we get t = 0.5 seconds.

Therefore, the carriage is in freefall for 0.5 seconds before the brakes are applied.
 

1. What is a shock drop ride?

A shock drop ride is an amusement park ride that involves a sudden, steep drop followed by a series of smaller drops. It is designed to simulate the feeling of a free fall and often includes special effects to enhance the experience.

2. How does a shock drop ride work?

A shock drop ride uses a combination of mechanical and gravitational forces to create the drop sensation. The ride is typically powered by a motor that pulls the riders to the top of the drop, and then releases them to experience the drop. Special brakes and cushioning systems are also used to control the speed and ensure the safety of the riders.

3. What are the safety precautions for a shock drop ride?

Before riding a shock drop ride, riders are typically required to meet certain height and weight restrictions. They must also be secured with a safety harness or seat belt. Amusement parks also conduct regular safety inspections and maintenance on these rides to ensure they are functioning properly.

4. What are the physical effects of riding a shock drop ride?

Riding a shock drop ride can cause an adrenaline rush, increased heart rate, and a feeling of weightlessness during the drop. Some people may also experience motion sickness or dizziness, but these effects are usually temporary and subside after the ride is over.

5. How do engineers design a shock drop ride?

Engineers use principles of physics, such as gravity and acceleration, to design a shock drop ride that will provide a thrilling and safe experience for riders. They also consider factors like the ride's height, speed, and forces on the body to ensure the ride is both exciting and manageable for riders.

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