You have a better use of using your weight to be more eficiant will walking or running. Your weight transfers better than being short
If a force is being applied to a moving object, it will change its velocity (it will accelerate) appropriately.
speed! a moving car is having a force greater than the friction of the tires/air (and gravity on a steep upward hill) applied to it, and is moving forward. The force can come from the engine, or external forces.
Greater. Since force is directly proportional to the change in momentum, the longer a force acts on an object, the greater the change in its momentum.
Yes, an object will stop moving when the force that was causing it to move runs out or is no longer applied. This is based on Newton's First Law of Motion, which states that an object will remain at rest or in uniform motion unless acted on by an external force.
An object in equilibrium is not moving, as all the forces acting on the object are balanced. If the object were to be in motion, it would no longer be in equilibrium as there would be an unbalanced force acting on it.
First and second class levers are known as force multipliers because they are able to amplify the force applied to them. By having the effort arm longer than the resistance arm, these levers can increase the input force to generate a greater output force. This makes them effective tools for lifting heavy loads or moving objects with less effort.
First of all, there's no such thing as "an unbalanced force". But we'll run past that and go directly to the question. Strange as it may seem, no force is required to keep a moving object moving. Force is only needed to change the object's speed, or to change the direction in which it's moving. When no force acts on it, it keeps moving just fine, at a constant speed and heading in a straight line. This has all been known for roughly 500 years now.
No. It takes a force to put something in motion, and it takes force to stop it. To keep it moving requires zero force. If there is no opposing friction force, it will continue moving forever. If you can significantly reduce the friction, a small force can keep an object moving - just enough to counteract the force of friction.No. It takes a force to put something in motion, and it takes force to stop it. To keep it moving requires zero force. If there is no opposing friction force, it will continue moving forever. If you can significantly reduce the friction, a small force can keep an object moving - just enough to counteract the force of friction.No. It takes a force to put something in motion, and it takes force to stop it. To keep it moving requires zero force. If there is no opposing friction force, it will continue moving forever. If you can significantly reduce the friction, a small force can keep an object moving - just enough to counteract the force of friction.No. It takes a force to put something in motion, and it takes force to stop it. To keep it moving requires zero force. If there is no opposing friction force, it will continue moving forever. If you can significantly reduce the friction, a small force can keep an object moving - just enough to counteract the force of friction.
Terminal speed refers to the constant speed that an object reaches when the drag force acting on it equals the driving force. This means the object no longer accelerates and continues moving at a constant velocity. It occurs when the drag force and gravitational force are balanced.
The force that keeps a ball moving in a circle is called centripetal force. This force acts towards the center of the circle and prevents the ball from moving in a straight line.
Muscles produce force when contracting to move the bones in our body. This force is generated by the energy released from the breakdown of ATP (adenosine triphosphate) within the muscle cells.IllegalAccessExceptionWould you like to ask anything else?
Muscles and ligaments play a crucial role in supporting and moving the skeleton. Muscles provide the force needed to move the bones, while ligaments connect bones to each other, providing stability and preventing excessive movement. Together, they work to support the skeleton and allow for coordinated movement.