Considering v(t) the speed of the object in a given time t, we have: Increase (or decrease) in object speed over time can be represented by: a(t) From Physics and Calculus, a(t)=dv(t)/dt=dv/dt. Then, from your sentence, we can create the following expression: a(t)/t= (dv/dt)/t, which actually means nothing. So, the answer is no, you can't determine anything with the information presented
The increase in speed of objects is typically caused by the application of a force in the direction of motion, as described by Newton's second law of motion (F=ma). This force can be generated by various means, such as pushing, pulling, or gravity. Additionally, reducing friction or air resistance can also contribute to increasing an object's speed.
In physics, "acceleration" is a measure of how quickly an object's velocity changes over time. It affects the motion of objects by determining how fast their speed or direction changes. Acceleration can cause objects to speed up, slow down, or change direction, depending on its magnitude and direction.
Falling objects accelerate due to gravity at a rate of approximately 9.8 m/s^2 near the surface of the Earth. This acceleration is constant and causes objects to increase in speed as they fall.
Falling objects speed up due to the acceleration of gravity acting on them. As an object falls, the force of gravity pulls it downward, causing it to accelerate. This acceleration causes the object to increase in speed until it reaches terminal velocity or hits the ground.
Considering v(t) the speed of the object in a given time t, we have: Increase (or decrease) in object speed over time can be represented by: a(t) From Physics and Calculus, a(t)=dv(t)/dt=dv/dt. Then, from your sentence, we can create the following expression: a(t)/t= (dv/dt)/t, which actually means nothing. So, the answer is no, you can't determine anything with the information presented
The increase in speed of objects is typically caused by the application of a force in the direction of motion, as described by Newton's second law of motion (F=ma). This force can be generated by various means, such as pushing, pulling, or gravity. Additionally, reducing friction or air resistance can also contribute to increasing an object's speed.
No, the force of friction always acts in the direction opposite to that of the motions.
In physics, "acceleration" is a measure of how quickly an object's velocity changes over time. It affects the motion of objects by determining how fast their speed or direction changes. Acceleration can cause objects to speed up, slow down, or change direction, depending on its magnitude and direction.
That depends on the speed. Divide the distance by the speed to get hours.That depends on the speed. Divide the distance by the speed to get hours.That depends on the speed. Divide the distance by the speed to get hours.That depends on the speed. Divide the distance by the speed to get hours.
kinetic energyThe formula for determining kinetic energy is KE = 1/2mv2, where m is mass in kg, and v is speed in m/s.
That depends on the speed. If you know at what speed you will travel, divide the distance by the speed.That depends on the speed. If you know at what speed you will travel, divide the distance by the speed.That depends on the speed. If you know at what speed you will travel, divide the distance by the speed.That depends on the speed. If you know at what speed you will travel, divide the distance by the speed.
Falling objects accelerate due to gravity at a rate of approximately 9.8 m/s^2 near the surface of the Earth. This acceleration is constant and causes objects to increase in speed as they fall.
False because it just cant be true for reasons
Both increase the kinetic energy, thus making the crash more destructive.
Falling objects speed up due to the acceleration of gravity acting on them. As an object falls, the force of gravity pulls it downward, causing it to accelerate. This acceleration causes the object to increase in speed until it reaches terminal velocity or hits the ground.
Either the mass of the object or the speed of the object. However if the object is at rest, the increase of the mass will have no effect on its resting kinetic energy, which is zero.