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All three Laws of Motion are displayed while flipping a pancake as:

1. The first law is shown as the pancake rains at rest until the pan moved enough to make the pancake move. (An object won't move until something else moves it.) Also, the pancake will stop moving when the pan stops it when coming back from the flip. (, an object will move constantly until something else stops it.)

2. The second law is displayed as the acceleration of the flip wil depend of how heavy the pancake is and how much furce is put into the pan to make the pancake flip. (The total acceleration of an object comes from its mass and the force that is being applied to that object while it moves.)

3. The third law is shown as the pancake comes back from the flip and hits the pan again with force. The force that the pancake puts into the pan as it comes back is the same force the pan puts back into the pancake.  (Whatever force you put into an object, the object will put the same force back into you. Your action does have a reaction. )

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Samuel López, Ernesto Santos, Paula Chiquín 

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Samuel López, Ernesto Santos, Paula Chiquín 

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First Law: The bicycle is at rest until the girl starts pedaling. According to the first law of Newton: An object will stay in rest or will be in motion until an external force acts in it. The external force is the girl pedaling

Second Law: The second law can be seen when the bicycle starts moving. This is because when the girl started pedaling she applied force making the bicycle accelerate.

Third Law: Since the bicycle's wheels are moving clockwise with a specific force, the wheels push backward against the ground making the bicycle move forward.

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Watch the excitement as this girl learns to ride a bike l GMA

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I love how her brother helps her.SUBSCRIBE to GMA's YouTube page: https://bit.ly/2Zq0dU5 VISIT GMA's homepage: https://www.goodmorningamerica.comSIGN UP to ...

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The video we chose is the first clip. The first law can be seen when the man on the skateboard is going downhill. From rest at the top of the hill, he jumps and forces the skateboard's wheels to move forward. If he had not jumped and applied force, he would've not moved, since there is not an external force that moves the resting skateboard. Additionally, at the end of the cliff, if the man wasn't standing there, then the man on the skateboard wouldn't have crashed, and he would've kept skating because there wouldn't be an external force stopping him from stopping.
Newton's second law is seen in the clip because we see that the person's force depends on the mass of the person and the person's acceleration. If the person had a greater mass, their force would be greater and the acceleration would be less. Contrastingly, if his mass was smaller, then the acceleration and force of the man would be smaller when he hit contact with the second man at the bottom of the clip.
The third Newton law applies to this video because the man crashing with the other man created an opposite and equal reaction. This is seen when the man pushed by the one on the skateboard felt the same magnitude of force, which caused him to fall down too but in an opposite direction.

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Try Not To Look away *Hard* SKATE FAILS!! | Best of 2022 Compilation

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A car crash serves as a clear illustration of all three of Newton's laws of motion.

The car is in motion with a certain speed and direction. When the collision occurs, the first law of Newton becomes evident as an external force, the collision itself, disrupts the car's initial state of motion.

The second law becomes apparent as the force generated by the impact is directly linked to the car's rapid deceleration (a change in velocity) and the total mass of both the car and its occupants.

Finally, the third law is exemplified by the equal and opposite forces experienced during the crash: one vehicle imparts a force on the other, leading to deformation and damage, while the passengers also experience these forces, often colliding with the car's interior due to their tendency to stay in motion.

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First law: in t=0, the arm of person 1 was at rest, it will be at rest until person 1's joints move.

Second law: after that, an acceleration starts from person 1's arm given by the arm's mass and by the forces applied in the arm.

Third law: Person 2's head is bouncing on the floor because of the force given by the arm. The arm is going back because the same magnitude of the force applied in the head is exerted again but in a different direction.

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Laws of Newton visible in the use of a Swing

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Sofia Machado, Jose Miguel Reyes,  Mathias Ufer, Juan Pablo Monge

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Sofia Machado, Jose Miguel Reyes,  Mathias Ufer, Juan Pablo Monge

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The first law can be seen in two moments. First, before swinging, if no force is applied to you, the swing will not move. Other moment where the first law can be seen is during the swing. According to the first law, you will continue swinging back and forth unless an external force (like friction or air resistance) slows you down.
Newton's Second Law (F = ma):
*The Second law can be seen when you exert a force on the swing by pulling the ropes. The force is going to be directly related to the mass (of the one over the swing) and the acceleration it is experimenting. This law helps explain how you gain speed and height as you swing.

*Finally, the third law can be seen every time you push the swing away from you. There is an action (pushing), and a reaction (the swing pushing you in opposite direction). This law explains how you move in the swing.

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Gaby Salvador, Julissa Torres and Paula Bámaca

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Gaby Salvador, Julissa Torres and Paula Bámaca

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First Law: The video shows a "hyperspace jump", where a spaceship is at rest and it will remain at rest until a force is applied.
Second Law: when the spaceship engine ignites it produces a backward net force that will result in the acceleration of the spaceship.
Third law: as the engine expells force backward which reaction is in the spaceship being moved forward in the opposite direction and with equal force.

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1. First law: The video shows the first law of motion because the passengers are stopped by the seatbelt when the car crashes. The forces of the people inside the car would have been constant if an outside force or the car crashing hadn't acted upon it.
2. Second law: We can see the second law in the video because the video can represent the equation of force = mass * acceleration. We can find each of the forces that are given as the car crashes into the wall. The (f) force of the car, (a) the acceleration of the car, (m) the mass of the car.
3. Third law: The video demonstrates the third law in the segment where the passengers are using seatbelts. The force that the passengers carry is exerted upon the seatbelts. Due to the third law of motion, the seatbelts exert the same magnitude of force back to the passengers, moving them back.

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Crash Test - Belted vs Unbelted Passengers

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1st law: the car only moves when the pedal is pressed and energy is released, after gaining velocity he crashed with the buglar and continues until he isnt pressing the pedal and external forces have anulated his velocity. 2nd law: when the car starts, a force is produced on the wheels and this makes the car go forward, he is accelerating, and because of the car´s mass, the force has to proportional to the cars weight for it to advance. 3rd law: when the car hits the buglar, a force is exerted on the buglar and this throws him of balance and into the top because of a centrifugal force. the car continues its path because the force exerted is not enogh to stop the car

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Video shows man get flung onto road trying to stop car burglary in San Francisco l ABC7

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1st law: The balls of the pendulum will continue moving until an external force stops them. If there is no interference, the balls will continue moving at a constant speed.
2nd Law: The force making the motion comes from a combination of the mass of the ball and the string. The length of the string affects the force it will create when the ball comes back down.
3rd Law:
We can see that the spheres are acting forces within each other. This means that a sphere that is moving towards a still one is exerting a force (a), making it so that the still sphere exerts the same magnitude of force (a) towards its opposite direction. It is by this opposite force that a chain is made, in which the still balls exert same magnitude but opposite directional forces, which therefore trigger the movement in the opposite ball.

By definition, Newton's third law of motion states that (in simple terms) If an object A exerts a force on object B, then object B must exert a force of equal magnitude and opposite direction back on object A. If we consider the sphere  moving as object A, ignore the still spheres and use the corner sphere as object B, we can come to the conclusion that this diagram shows this law of motion.

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First Law: Before the rocket launch, the rocket is at rest on the launchpad. According to the first law, it will remain at rest until an external force is applied. In this case, the external force is the ignition of the rocket engines.
Second Law: When the rocket's engines ignite, they produce a net force (F) by expelling gases backward and this force results in acceleration (a) of the rocket. This represents the second law, which states that the force applied is proportional to the mass of the rocket (m) * the acceleration it experiences.
Third law: As the rocket's engines expel  gases downward, they create an equal and opposite force on the rocket itself, pushing it upward. This is an example of the third law because where the action (gases being expelled downward) there is a reaction (rocket moving upward).

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Alejandro KAFKA, Won Ho Sodium, J. J. Cazziano (AKA El medio lento)

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Alejandro KAFKA, Won Ho Sodium, J. J. Cazziano (AKA El medio lento)

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The video demonstrates Newton's first law because the biker is moving. Even though there is friction acting upon the bike, the biker is pedaling forward, which results in a net force that makes the biker move forward. When the biker stops pedaling, friction will eventually make the bike stop because there is no force that is pushing the bike forwards, meaning that the net force will make the bike stop. The second law of Newton is demonstrated in the video as the biker applying force, with his legs, through the pedals of the bike. More force applied, means more acceleration. Moving on, these video also demonstrates Newton's third law because the biker is applying force and in return, the bike experiences a change in velocity.

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1st Law: Because Karina and Isa are running until they crash so we can see how they are in motion until they crash (have another forces acting upon them).
2nd Law: We can see how the force of Isa and Karina's bodies is such because they have a mass and are running (acceleration) which gives us their force when crashing.
3rd Law: We can see how when they crash they both excert a force upon eachother and push eachother back which shows the reaction that is equal in force but opposite in direction.

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Martin Ufer, Christian Saxton, Rafael Quiñonez

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Martin Ufer, Christian Saxton, Rafael Quiñonez

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This video has all 3 law of motions. The first one is shown by how the ball remains at rest until the player kicks (external force). The second law is shown when the ball accelerates depending on how strong or how much force those the player applied. The last law is shown because there is an equal and opposite reaction force that allows the ball to move

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Goalkeeper celebrates prematurely before penalty spins back into goal