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Quiz about Lets Build a Rollercoaster
Quiz about Lets Build a Rollercoaster

Let's Build a Rollercoaster! Trivia Quiz


Meet Bob the rollercoaster designer. He's asked you, the person who knows all about physics, to tell him what you think about his coaster.

A multiple-choice quiz by dudealicious. Estimated time: 5 mins.
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Author
dudealicious
Time
5 mins
Type
Multiple Choice
Quiz #
228,571
Updated
Dec 03 21
# Qns
10
Difficulty
Average
Avg Score
7 / 10
Plays
991
Last 3 plays: Guest 174 (9/10), Guest 8 (9/10), Guest 166 (10/10).
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Question 1 of 10
1. "Hmmm," Bob says to you. "I can't remember any of my lessons from physics class. Will you help me?"
"Sure, Bob," you say.
"What exactly is a rollercoaster?"
Hint


Question 2 of 10
2. Bob looks puzzled. While scratching his head, he asks, "Where does the rollercoaster get its energy from?" Hint


Question 3 of 10
3. Bob says to you, "I've designed my first hill to be 50 feet tall. I want to build a loop right after it and I want it to be 60 feet tall."

"Bob, you can't do that," you say. Why?
Hint


Question 4 of 10
4. "A rollercoaster is basically just mechanical energy? Is that true?" Bob asks.


Question 5 of 10
5. "I understand mechanical energy," Bob says to you, "but what exactly is kinetic energy?" Hint


Question 6 of 10
6. One of Bob's other designers sighs. "I wish we could make our coaster use linear synchronous motors like that rollercoaster I once was on."
"What rollercoaster?" You ask.
Hint


Question 7 of 10
7. Bob stares at his paper. "This coaster will definitely be a steel hyper-coaster. Or should it be a giga-coaster?" He turns to you. "What's the difference?" he asks. Hint


Question 8 of 10
8. "I'm thinking about adding some interesting track elements to my rollercoaster," Bob says to you. "But I spilled coffee all over my reference paper! What's a bunny hop again?" Hint


Question 9 of 10
9. Bob says, "I think I understand potential and kinetic energy now. The rollercoaster has its greatest amount of potential energy at the bottom of the highest hill."


Question 10 of 10
10. You turn to leave. It looks like Bob's other designer can help him the rest of the way. "One last thing," says Bob. "I just want to make sure that I understand rollercoasters. The two major forces that drive them are gravity and centripetal force, but it also uses inertia."



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Most Recent Scores
Dec 20 2024 : Guest 174: 9/10
Dec 14 2024 : Guest 8: 9/10
Dec 03 2024 : Guest 166: 10/10
Nov 07 2024 : Guest 107: 6/10
Nov 02 2024 : Guest 174: 10/10
Nov 01 2024 : Guest 173: 9/10
Oct 26 2024 : Guest 192: 9/10

Score Distribution

quiz
Quiz Answer Key and Fun Facts
1. "Hmmm," Bob says to you. "I can't remember any of my lessons from physics class. Will you help me?" "Sure, Bob," you say. "What exactly is a rollercoaster?"

Answer: "A machine using gravity and inertia to send a car along a track."

"That's an easy one, Bob," you reply. "A rollercoaster is a machine using basic forces, like gravity. It also uses inertia to send a car along a track. There are all kinds of different rollercoasters besides the standard train on a track. There can be floorless ones and stand-up ones too."
2. Bob looks puzzled. While scratching his head, he asks, "Where does the rollercoaster get its energy from?"

Answer: "The lift hill."

"The lift hill gives the rollercoaster its energy for the entire coaster. The purpose of the lift hill is to build up potential energy. As the coaster moves along the track, the potential energy changes back to kinetic again. When the coaster goes down a hill, there is increasing kinetic energy. When it goes up a hill, there is increasing potential energy," you tell him.
3. Bob says to you, "I've designed my first hill to be 50 feet tall. I want to build a loop right after it and I want it to be 60 feet tall." "Bob, you can't do that," you say. Why?

Answer: "Because the loop is taller than the first hill."

"Bob, you can't do this because the loop is taller than the first hill. Having the loop smaller than the first hill would be much safer, because if the loop was taller than the first hill, or the lift hill, then the train wouldn't have enough energy to get around the loop and would probably stop in the middle, which wouldn't be good. Remember, rollercoasters have no engines after the chain that drags you up the first hill, so there isn't an engine to keep you going.

It's all physics."
4. "A rollercoaster is basically just mechanical energy? Is that true?" Bob asks.

Answer: yes

"That's right, Bob."
"I think I get it now. Mechanical energy is the energy which is possessed by an object due to its motion! So anything moving can have mechanical energy. Some examples are a moving car, moving air or water, or a thrown baseball."
"Not so fast," you say. "Mechanical energy can also be stored energy--or potential energy. An object like a fan that's shut off could also have mechanical energy."
"I see. Because it could possibly have moving air, which is mechanical energy."
"Exactly, Bob," you answer.
5. "I understand mechanical energy," Bob says to you, "but what exactly is kinetic energy?"

Answer: "The energy of motion."

"Kinetic energy is the energy of motion. Anything that moves uses kinetic energy. There are two basic kinds of energy: one is kinetic, and one is potential. Potential energy is the stored energy."
"Oh, I see." Bob says to you.
6. One of Bob's other designers sighs. "I wish we could make our coaster use linear synchronous motors like that rollercoaster I once was on." "What rollercoaster?" You ask.

Answer: "Superman: the Escape from Six Flags Magic Mountain."

"Superman: the Escape," he answers. "It was at Six Flags Magic Mountain. It was awesome! The linear synchronous motors (or LSM for short) make the rollercoaster go super fast!"
Bob shudders. "That kind of rollercoaster would make me sick!"
"Me too." You agree.
7. Bob stares at his paper. "This coaster will definitely be a steel hyper-coaster. Or should it be a giga-coaster?" He turns to you. "What's the difference?" he asks.

Answer: "A hyper-coaster's first hill is 200 ft and a giga-coaster's is 300 ft."

"A hyper-coaster's first hill is 200 ft and a giga-coaster's is 300 ft. That's the only difference. It's quite simple, really. They could be different in other ways, but this one is the primary difference."
"That's really cool," Bob says.
8. "I'm thinking about adding some interesting track elements to my rollercoaster," Bob says to you. "But I spilled coffee all over my reference paper! What's a bunny hop again?"

Answer: "It's a small or large hill."

"It's a small or large hill, Bob." says Bob's other designer. "It results in the sensation that you're in the air, so it's a very popular way to end a ride. I think that's where we should have ours."
"Okay. That sounds good," replies Bob.
9. Bob says, "I think I understand potential and kinetic energy now. The rollercoaster has its greatest amount of potential energy at the bottom of the highest hill."

Answer: False

"No, Bob. That's not right," you say. "The rollercoaster has the greatest amount of potential energy at the top of the highest hill, not the bottom. You see, kinetic energy is the energy of motion. Potential energy is stored energy. As the train goes down the first hill, the potential energy decreases and the kinetic energy increases.

The rollercoaster has the greatest amount of kinetic energy at the bottom of the first hill."
10. You turn to leave. It looks like Bob's other designer can help him the rest of the way. "One last thing," says Bob. "I just want to make sure that I understand rollercoasters. The two major forces that drive them are gravity and centripetal force, but it also uses inertia."

Answer: True

"Exactly, Bob," you say. "The two forces are gravity and centripetal forces. It uses inertia too. Inertia is when objects at rest tend to remain at rest or an object in motion tends to stay in motion in a straight line unless acted on by an outside force. This is Newton's First Law of Motion. Gravity is the force of attraction between two objects, and centripetal force is the force acting on an object moving in a circular motion. It is a state of constant acceleration."
"Thanks for all of your help. I really appreciate it."
"You're welcome, Bob. I can't wait to ride your rollercoaster."
Source: Author dudealicious

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