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Nothing would ever stop moving due to lack of friction.

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Once upon a time there was a guy named Bob. Bob lived a weird and unusual life. Especially on Mondays. This Monday, he got into his flying bowl of egg-fried rice and started the engine. Today, the machine started spewing out science facts. "Did you know that I won't move unless acted on by another force?" it said as Bob started the engines. When it lifted off it said, "Did you know that the force required to lift me is equal to our masses times the acceleration we go at?" After a smooth (quiet) ride to work, Bob unconsciously said, "Wow, it's so quiet", and the speakers buzzed back to life. "Finally, did you know that when I'm sitting on the ground, the ground pushes back with an equal and opposite force?" "Yeah, yeah, whatever" replied Bob, and he went to work with a very weird morning.

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A spacecraft with no fuel will not stop because of Newton's first law. The first law states that an object in rest or motion will stay in the same state unless acted upon by a force. In outer space, there is no air, so there would be no air resistance. That means that there is nothing to stop the spacecraft, unless it crashes into, or gets affected by the gravity of another planet or star.

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A spacecraft with no fuel would probably be drifting in space, because there is no gravity or friction. In Newton's first law it states that an object in motion will stay in motion until a force is acted upon. This proves how since there is no force of any kind in space, the spacecraft would just float in a direction.

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mine would of been A "Galactic Spinner" roller coaster, with elements of a carousel and bumper cars, demonstrates all three of Newton's Laws. The first law (inertia) is shown as the coaster car maintains its state of motion until an unbalanced force, like a sudden stop, changes its path. The second law (F=ma) is evident in the car's acceleration, as the forces applied by the motors and gravity increase the car's velocity, or the force of a sudden stop creates a rapid deceleration. For the third law (action-reaction), the wheels and track apply an equal and opposite force on the car, as do the car and the riders during turns and collisions, allowing for controlled movement and interaction.

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Newton's Third Law is critically important in engineering design because it provides the fundamental principle for all propulsion, lift, and stabilization systems that operate by interacting with a working fluid (such as air or water). Without designing systems to effectively produce an "action" that generates a useful "reaction," devices like drones, airplanes, and jet engines could not move or stay airborne.

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Big Truck versus lil car

A heavier truck takes longer to stop because, according to Newton's Second Law (F=ma), it requires a greater net stopping force to achieve the same deceleration as a lighter car, or, if the net force is the same, it will experience a much smaller deceleration, leading to a longer stopping distance. The truck's greater mass means more energy must be dissipated, and to produce the necessary stopping force on the same friction surface, more time is needed.

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As a dude was doing his regular morning workout of 2 hours of birdies and 6 hours of downwards birdies. He realised that the lighter weights require less force to lift than the heavier ones, which required more. At 4pm after he finished his morning workout he decided to punch the wall to prove his own strength. Unfortunately, the wall was made of depleted uranium. So when he punched the wall, his fist didn't go through the wall. Instead all of the force he punched the wall with went directly back into his fist. "yeowch" he said softly before picking the entire building up and throwing it in the opposite direction. As it flew through the air, he saw how the gravity and wind resistance caused the building to slow down and then fall on top of a nearby school. Good thing it was the weekend so no one was there.

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A heavier truck may take longer than a lighter truck even if the force is the same and here is why. According to Newtons 2nd law F= ma. If a object has a heavier mass but has the same force as the lighter ,the lighter will go faster or further than the heavier truck. The reason it would go faster is just because there is not as much weight to push and can move easier than the heavier option

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A guy was driving his car until he crashed it into a wall. This fully stop his car because Newton's 1st law states that an object in motion will stay in motion unless another force is acted upon. After that he went on a public bus to get home when the driver started braking and it took longer to brake, so the bus crashed as well. Finally, he went walked home and pushed the ground with his foot making the ground push back.

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When A big truck stops it takes longer because the truck has more mass which means more force to move the truck move which also means that it takes longer to completely stop the truck. While the car has less mass and needs less force to move which means it can stop faster than the truck. Also the car can accelerate faster than the truck which means it can stop faster than the truck.

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 Newton’s First Law and Second Law during the motion of a soccer ball during a penalty kick.

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 Newton’s First Law and Second Law during the motion of a soccer ball during a penalty kick.

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During soccer when there is a penalty kick you use Newtons first law of motion by it staying at rest until it gets kicked by a unbalanced force. When using Newtons second law of motion, when the kicker has to add more force in order for it to accelerate more .

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One day Minos Prime gets launched by a explosion, and if the force of gravity wasn't there to pull him back down to Earth, he would fly in a straight line infinitely. On another day, Minos Prime throws Vl and Gabriel, now because Vl is made of metal, it is much heavier than Gabriel, which made it get thrown less far. On another random day Minos Prime jumped up 30 ft to CRUSH Vl and this shows Newtons Third law as Minos Prime pushes on the ground and the ground pushes back with a equal and opposite force.

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Seatbelts are important because they help us stay safe. For example in newtons 1st law of motion says that something in motion will stay in motion until acted on by and unbalenced force. When you are driving a car and have to stop the force wants to throw you forward and the seatbelt will help you stop going forward.

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A world without friction would mean that there would mean when something is ever pushed, it would never stop because there is no friction. That is where Newtons first law works because nothing would be there to stop the object

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The Heavier Truck would be harder to stop than the Smaller Car because it has more mass which mean it can accelerate more but that's like trying to catch a full grown person from falling Vs. a 3 year old. So in summary The Heavier Truck has more mass so it would be harder to stop, and the Smaller car has smaller or less mass which would make it easier to stop.

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if there was no friction it would be hard to stop

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if a spaceship stops accelerating in space, then it will go on forever until it collides with an opposing force. this is because there is no opposing force (gravity) to pull/push it.

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an object in motion will stay in motion until outside force acts on it there is no gravity nor friction in space. if it hits a planet now that a different story

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F=ma

A larger truck will take longer to stop because since the truck weighs more and the acceleration rate of the truck will cause the driver to use more force to stop the truck compared to someone who is driving a car that has less mass and acceleration, so that will cause the person who is driving the car to use less force to stop the car.

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A spacecraft with no fuel in space would keep moving because in space there is no opposing forces acting upon it.

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The little truck would stop before the big truck because the little truck has less mass. According to f=ma if there is less mass then you will need less force for you to stop, the little car vs Truck.

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The reason a bigger truck will take longer to stop then a smaller one is because of newtons 2nd law stating that F=ma which means that since the smaller truck has less mass then the larger one it can stop more easily and quickly while a larger truck has more mass so it requires more time and has a harder time stopping.

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The little car would stop faster if the breaks have the same force, because the little car would have a lot less mass than the big truck, so it would decelerate faster because not as much force is needed to stop it. So if you apply equal forces on both the little car should stop faster because of Newtons 2nd Law about force and mass and acceleration/F=MA.

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spacecraft with no fuel will continue on indefinitely

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spacecraft with no fuel will continue on indefinitely

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Assuming there is nothing in it's path, (Objects, gravity, or something that could act a different force onto the spacecraft.), It could theoretically continue on indefinitely. Newton's first law states that an object in motion stays in motion unless an unbalanced force acts upon it. So without anything to act another force on it, it would continue moving at the same speed in the same direction indefinitely.

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A space craft with no fuel would keep moving forever in space is because there is no gravity in space. Newton's first law is, that an object in motion stays in motion unless acted upon an unbalanced force. In space there is no force or anything to stop it and would keep on going forever.

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The big Truck will have a harder time stopping because the big truck has more mass and so more force is required to make it stop. The little car has less mass so it will take less force for it to stop.

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Do you know why it is important to put on your seatbelt? That is because if you slam the breaks really hard, you will go flying out of your seat!

We can relate this toi Newton's 1st Law of Motion. Your body has inertia, so when the car stops, that inertia keeps you going.

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Seatbelts help people by using newton 1st law to help stop you from launching forward when your come to a complete stop while in your car by holding you from going forward from the same amount of force from the motion of the car.

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if they both accelerated at the same time then the little car will win because it has less mass.

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ice skating vs just walking ice skating you stop moving but you keep going walking you stop moving and friction stops you

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TRUCK SCENARIO

The little car stops faster than the big truck because it has less mass. Newtons Second law is F=ma, and since the truck has more mass, there is more force needed to stop it than the little car.

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A world without friction would be weird because we wouldn't need to use as much force as we do in the real world.

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A spacecraft with no fuel will keep moving because there is no opposing force that would slow it down so it will stay in motion.

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Car vs. Truck: Which one stops faster and why?

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Car vs. Truck: Which one stops faster and why?

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By comparing a car and a truck in a breaking test, we can know that a car is able to stop much much faster than the truck.

But why is this?

Well, by looking at Newton's 2nd Law of Motion (F=ma) it looks like we have found our answer!

Analyzing our equation F=ma, we see that m (mass) times a (acceleration) equals F (Force). We can add our truck and car problem to this equation. If we are talking about the truck, we know that this vehicle has much more mass. In that case, we can see that it needs more force to slow the truck down. Then we can just reverse this for the car.

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The spaceship would keep moving unless a force acts on it, it won't stop because inertia doesn't change.

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Seatbelts use Newton's 1st law because when the car stops your body moves forward because of inertia and you would keep going but your seatbelt is there to stop you from doing that because it is an outside force stopping your motion. The seatbelt is sufficient because they can save you in car crashes and they work almost always.

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A world without friction would look something like where if you kicked something in space when you kick it, it will never stop moving with no friction there's no stopping anything.

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Friction changes newtons first law by being a force that affects most things, like if you rolled a ball in our world it would eventually stop but in a world without friction the ball would keep on rolling forever.

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A heavier truck will take longer to stop than a smaller car, because the heavier one has more mass. Newtons 1st law is F=ma, because there is more force required to stop the bigger car.

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Newton's second law is just basically F= ma (Force equals mass times acceleration). So when the big truck breaks, it requires more force because of it's larger mass. However when the smaller car breaks, it requires less force because of it's lesser mass.

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The heavier truck will take longer to stop because it has more mass. This means that when something with a bigger mass is accelerating, it will take longer to stop than something else that has less mass. This means that Newton's second law that explains how you have to exert more force to move something with a greater mass correlates to when it has to stop also.

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The smaller car would stop earlier because while the force on the car is the same as the one on the heavier car, the smaller car has less mass, and when applied to the formula F=ma, the smaller car has less acceleration, so it stops sooner. Meanwhile, the heavier car is, of course, heavy, so its greater mass will cause it to stop later because of how much more acceleration it has.

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When kicking a soccer ball, the first law is demonstrated because the ball is at rest before the kick, then the outside force of the player causes it to change motion. 2nd law happens because how hard you kick it affects the acceleration

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When a penalty kick is kicked in soccer, both of newton's laws are in action. First Law: When the ball is on the field, waiting to be kicked, it at rest (balanced force). When the player kicks it at the goal, the ball changes in velocity, causing an unbalanced force. Then, when the goalie stops it or it goes into the net, it becomes still (balanced force). Second Law: When you use different sizes of balls in soccer, you change the amount of force needed to make the balls go the same speed. If you kick the ball harder, it has a faster acceleration, meaning more force was used.

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The importance of newtons 3rd law in engineering design 

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The importance of newtons 3rd law in engineering design 

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Newtons 3rd law is important for engineering design because when designing a rocket there is an equal and opposite reaction like the 3rd law states because in a rocket launch the rocket fuel pushes down on the ground so the ground pushes back on the rocket. This causes the rocket to blast off with equal and opposite force.

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In a world without friction a lot of forces would be more. For instance cars would go faster without friction going agaisnt them.

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One day, my finger accidentally slipped with a large amount of force and pushed Dax into a wall. The wall pushed back on Dax and it didn't go so well for him. He broke his nose and cried like a baby and learned Newton's 3rd law.

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The reason as to why a spacecraft that lacks fuel would continue to move in space is inertia. In space, there's no forces--like gravity or air resistance--that would be acting upon the spacecraft, which is why inertia takes a toll on the spacecraft.

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Car seatbelts are very important in our daily life. They stop your motion of moving forward and hold you to the seat. I think the current designs are sufficient because they stop the object in motion (person).

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It would take longer because it has more mass because in newtons 2nd law it states that f=ma so it will take longer.

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Seatbelts use newton's 1st law of motion by helping you stay safe whenever the car hits on the breaks and you move forward the seatbelt helps you not to move forward entirely, so that you don't hurt yourself. I would say the current seatbelt design is sufficient and works most of the time and saves a lot of people lives.

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A heavier truck will take longer to stop than a smaller car because even though they are breaking at the same rate the truck has more mass that the car. Newtons second law of motion (F=MA) states that if you use the same amount of force on two objects with different mass the lighter one will travel a farther distance or stop at a faster rate. This is the reason that a heavier truck will stop at a faster rate that a smaller car.

-Haylee Kreamer

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one day a dude was doing his 48 mile morning run and he accidentally ran into a wall, came to a screeching halt and broke his nose. (1st law, object in motion stays in motion) Then later at his house he got so mad that he threw isaac august kruger out the window as hard as he could, and dude was jacked by the way. In result isaac broke the glass and landed in a racoon dumpster to be attacked by racoons. (2nd law f=ma)After that, dude went outside and did a flying elbow on isaac's toe, then isaac screamed like a little girl. (action; flying elbow, reaction; isaac scream of pain)

By Dax Garner

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A spacecraft with no fuel will travel in a straight line forever in space because there is no friction in space. Newton's first law also states that an object in motion will stay in motion unless acted upon by another force. Therefore the rocket will stay in motion unless acted upon by another force.

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The little car would stop earlier because there is less mass, and according to newton's law F=ma, because there is less mass, there is less force required to stop the little car vs the big truck.

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The reason as to why a heavier truck may take longer to stop then a smaller car, even as they're breaking at an even rate, is the difference in mass. Newton's Second Law takes place in this demonstration because it states that more mass=more force needed. If the heavier truck broke at a force that made it stop at the exact same time as the smaller car did, more force would be used.

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Friction is very important to the world. For example in tennis if there was no friction there would be nothing to stop the ball. Nothing would pull the ball to the ground for it to bounce, and there would be no air resistance to stop it to keep travelling at a high speed. This shows Newton's First Law because every object will stay in motion until an outside force (gravity) acts on it.

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If a space craft ran out of fuel it would keep traveling through space forever unless acted upon by a very unbalanced forced. The reason why the space craft would keep moving through is because of Newtons 1st law. It states that an object will stay at rest/ constant speed unless acted upon by an unbalanced force. The space craft would keep moving through space without any unbalanced forces.

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When a penalty kick in soccer happens Newtons first law applies to it because the soccer ball is a balanced force until the kicker kicks it, then it becomes an unbalanced force. However Newtons second law has a role in this because the acceleration and distance the has will depend on the mass of the ball. This is because the more force there is the more acceleration the ball will have.

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In a world without friction every object would stay in motion unless acted by an outside force which would not be friction. It would mean more acceleration because the ball would never stop.

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Newton's first and second law during a penalty kick

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Newton's first and second law during a penalty kick

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The first law is demonstrated by a penalty kick because the soccer ball can't move unless acted on by an unbalanced force, the unbalanced force in a penalty kick is somebody's foot kicking the ball. The second law is demonstrated during a penalty kick by the person kicking the ball needing to use enough force to move the ball, you will also need enough force to move the certain amount of mass that the ball weighs, to make it accelerate to the goal.

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In a world without friction, Newton's Laws would be applied way differently. For starters, Newton's 1st Law would be way different because if an object is rolled across the ground, it would just keep moving and moving until a force besides friction stopped it or it just ran into something. Newton's second law would also apply differently because less force would be needed to make an object accelerate because after having the force applied it just wouldn't stop moving if the object the force was being applied on was on the ground. Lastly, Newton's 3rd Law would also apply differently because friction is basically exerting an equal and opposite force on something touching it, so when something rolls on the ground, it just wouldn't have that force reacting to the force coming from whatever is rolling.

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A heavy truck takes more force to accelerate, therefore the heavy truck will need more force to stop because of the high mass of it. On the other hand, the light car needs less force to accelerate and it does so faster than the truck, so the light car takes much less force to stop faster than the truck.

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The importance of Newton's third law in engineering designs is you need a force to be acting upon it. In the design of the Rocketship engineers made it to where debris was pushing on the ground and the ground was pushing up the rocket.

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A heavier truck will take longer to stop than a light car even though they use the same break force to stop because the truck takes more force to accelerate because of the high mass. If the truck is at full acceleration and it takes more force to control, the truck will be hard to stop at full speed because of the amount of force needed to stop it. The small car on the other hand, it needs less force to accelerate and it accelerates a lot faster. With that being said, the car doesn't need as much force to stop it completely than the truck.

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I would say that the current design of seatbelts is sufficient. I say this because of Newton's 1st Law, which is that an object in motion stays in motion while an object at rest stays at rest until acted upon by an unbalanced force. Since the seatbelt is there to block you from flying out of your seat in the event of a crash, the design we currently use is very efficient.

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The reason that it would take longer for the heavier truck to stop than the smaller car is because of Newton's Second Law, being F=ma. Since the heavier truck has more mass, it takes more force, that force being friction, to slow down the acceleration of the heavier truck than the smaller car.

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Question: Analyzing the role of friction in modifying the effects predicted by Newton's first law in real-world scenarios.

The role of friction in modifying the effects predicted by Newton's first law in real-world scenarios is that the ball will keep rolling forever and ever, but friction acts as a force on the ball so it comes to a stop. So if someone kicks a soccer ball it won't move forever because friction acts upon it. -Zoey Ksionda

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The current seatbelt designs use newton's first law to help from you jerking forward when the car hits a strong break. For example, When the car hits break, the car moves forwards slightly, causing you to move forwards as well. But the seatbelt acts as an outside force and stops you from fully going forwards. This is sufficient because it can save lives, and it works 90 percent of the time.

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A heavy truck is more difficult to stop than a small car because of Newton's second law. Newton's second law is F=ma which means force equals mass times acceleration. This means that for the small car with less mass needs less force to stop than a big truck with more mass. This shows how a large truck is harder to stop than a small car.

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In a world without friction, Newton's second law would not work because with the same force, you could push two things of different weights and they would move the same without friction, but with friction, the heavier object would need more force to go the same speed.

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In a world with no friction everything would be unbalanced and everything would never come to a halt without friction the world would be chaos like cars would have a insane high percentage of crashes rather than with a world with friction that things would come to a stop rather quickly.

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A spacecraft with no fuel will keep moving forever in space.

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A spacecraft with no fuel will keep moving forever in space.

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If a spacecraft with no fuel was in space, it would keep moving forever since there is no gravity to stop it. Newtons' 1rst law says that an object in motion will stay in motion until another force is acted on it. So unless the spaceship hits something or goes into an atmosphere, it will keep moving since no gravity or friction or any unbalanced force can stop it.

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A world without friction would mean that there would be nothing to stop lets s ay a ground ball in baseball. This applies to Newton's first law because an object in motion stays in motion unless acted on by an unbalanced force. In a world with no friction anything moving will keep moving on the ground. - Drake Tredway

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When there's a penalty kick in soccer The 1st law affects the penalty kick by making it so when the player hasn't kicked the ball yet the ball will stay still because there's no forces on it so it would be a balanced force. However if the player were to kick it it would make an unbalanced force so the ball would move. The second law also affects this situation because when the player kicks the ball if he used a small force the ball would have a small acceleration, but when the player kicks the ball with more force the balls acceleration would increase.

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Newtons 2nd law makes it to where the weight of the truck and the force give it less accretion and more mass and less force so the car has less mass and more force so it slows down faster

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In a world without friction, Newton's laws would act differently because all of them have some affect from friction. For example, Newton's 1st law states that a object in motion stays in motion until acted on by a unbalanced force, which in some cases would be friction. Also, in Newton's 3rd law, it states that for every action there is a equal and opposite reaction. Without friction there would be very little reactions because friction is a part of a reaction.

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The safety of seatbelt designs in cars are related to using Newton's first law of motion because of how it keeps you in place. For example, when you step on the brakes in a car roughly, you normally have to move forward by the force pushing us but our seatbelt keep at rest while we had stayed in rest from the start. -mithila tahsin

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Figuring out newtons laws in day to day life

Tommy was a soccer player and he always kicked the soccer ball not always knowing what was in affect. One day he started to notice that when he kicked the soccer ball across the grass it would slowly decrease in speed. Then he realized that if there was no grass the ball would continue to roll. He also noticed that whenever he missed the goal and hit the post it would bounce off, but then he realized when the ball hit the goal it was projected with an equal and opposite force. Finally, he noticed that the more force that he applied to the soccer ball the faster it would accelerate given that the soccer ball is the same.

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It wouldn't necessarily affect the laws, because it depends on the test you're doing.

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In a world without friction, Newton's 3 Laws would manifest differently. People and objects would slide through the floor instead of walking, propellers would be increadibly usefull to move around, and cars as wwe know of them today would be usseless.

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A spacecraft with no fuel cannot accelerate and will eventually stop in Earth's atmosphere, but if the Spacecraft was in space, it could fly forever. This is because there is nothing to stop the spacecraft, like friction or gravity.

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A world without friction would behave very differently than ours now. F=ma with no friction, means that we would use minimal force for the object to go anywhere.

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Isaac was a young boy who always wanted to learn more about science and anything that could make him learn more. One day him and his mom got in a fight about why his ball kept on rolling down the street, she had better points then him. He got mad so he went outside and laid under his Appletree like he normally does. One of the apples fell on his head. He got confused on why the apple had fallen and not stayed up there but what he realized is that he discovered gravity. Later on his life he made more laws about things like inertia and friction. He called them Newton Laws. They became very popular and everyone went by them.

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A space craft with no fuel will keep moving in space forever because there is nothing that can stop it. In Newton's first law it states that an object in motion will stay in motion unless an unbalanced force acts on it. There are none of these things in space. So if a space ship ran out of fuel it would keep going. - Drake Tredway

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Evaluating safety designs of seat belts.

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Evaluating safety designs of seat belts.

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Seat belts utilize Newton's First Law really well in saving people. I know this because Newton's First Law states that an object will remain at rest until a force acts on it and an object will remain at a constant speed until a force acts on it. This means that when you're in a car crash and you are being flung forward you won't stop until a force hits you and without a seatbelt you would get flung out of the car and injured. But with the seatbelt it is a force that stops you and helps you be safe.

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If there is a world without friction newtons laws might act differently because the f=ma will probably because the 3rd law would work differently because when a ball is rolling on the ground even though something is pushing on it, it just wont stop.

colton miller

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A world without friction would mean that there would be nothing to slow down a soccer ball when it is hit. Newton's first law would come into effect since nothing would be there to slow down objects that are sent flying. There would be nothing to push back on an object except for a wall. Even then, the ball would bounce back to the direction it came from and never stop rolling since there is no friction to stop it. -Agustin Paredes

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A heavier truck might take longer to stop than a small car because of their weights. Since Newtons 2nd Law states that F=MA, or force=mass times acceleration, then a car with more mass going at the same speed/acceleration as a car with less mass would require more force to slow down and stop, which is why a heavier truck would take longer to stop then a lighter car would.

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Assess the importance of Newton’s Third Law in engineering design

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Assess the importance of Newton’s Third Law in engineering design

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When a rocket takes off it uses gasses or chemicals which pushes it up and when it pushes it up the air pushes down on the rocket as the rocket goes upward the gasses become more stronger and push the rocket higher up which the air become equal with the rocket while going up and pushes the rocket downward as the gravity and newtons 3rd law act on it

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In a world without friction, there would be no stopping in motion potentially. That's because friction is one of the biggest unbalanced forces that regulates everyday life, so the world would be highly affected. -Beckett

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A space craft with no fuel with no fuel will keep moving through space, because there is no gravity or friction to stop the ship. In newton's first law, it said that an object in motion will stay in motion unless acted upon by an unbalanced force. In space there is no friction , gravity, or theoretically any other outside force. Therefor the ship will keep moving infinitely.

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The heavier truck might take longer than the car to brake because the truck has more mass. According to Newton's Second Law, F=MA, or force equals mass times acceleration. The truck has more mass, so it accelerates slower, but also deaccelerates slower than the car.

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The importance of Newton's Thrid Law in engineering design

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The importance of Newton's Thrid Law in engineering design

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Newton's Third Law of Action-Reaction is very important to engineering design, because it helps to design and make possible outcomes for success of a design or improvement of a design. Such as, when a rocket uses fuel to launch up to space, or when a car uses the brakes.

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The spaceship would keep going because, unless an outside force hits it,it will never stop because inertia don't just up and leave.

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The importance of Newton's third law when designing aircraft like drones and planes is that when the engine pushes forward or down, the air pushes back with a equal and opposite force. Newton's 3rd law states that for every action, there is a equal and opposite force. So, the engine pushing was the action and the air pushing back with equal and opposite force was the reaction.

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I support this claim, as Newton's 1st law states that every force is balanced until enacted on by an unbalanced force. This means that unless the craft had fuel, it would keep floating at the same rate in space.-Beckett