In symbols, when the applied force ( F_{\text{applied}} ) is equal to the frictional force ( F_{\text{friction}} ), then the net force ( F_{\text{net}} ) is zero, and the object will travel with a constant velocity. This means that there is no acceleration, and the object maintains its state of motion.
Yes, force can affect how far an object travels. The greater the force applied to an object, the farther it is likely to travel. This is because force influences the acceleration of the object, which in turn affects its speed and distance covered.
According to Newton's 2nd law of motion, both the basketball and baseball would travel the same distance if equal force were applied to them. This is because the acceleration of an object is directly proportional to the force applied to it, assuming the masses of the two objects are the same.
It has no acceleration. The definition of acceleration is the change in velocity over time, so if it is traveling at a constant speed, it has no acceleration. Also, the speed of light is a constant, which means it does not change.
Yes. Gamma Rays are photons (like visible light, just at another part of the electromagnetic spectrum). They travel with constant velocity at the speed of light (only in a vacuum). Although the original speed of the gamma ray varies.
If you stop an object moving in a circular path, it will continue to travel in the direction tangent to the circle at that point, due to its inertia. This is in accordance with Newton's first law of motion.
Such an object is said to travel at a constant speed. If it doesn't change direction, it is also said to travel at constant velocity.
No, objects do not always travel at a constant speed. The speed of an object can change due to various factors such as external forces, acceleration, and friction. In a vacuum with no external forces acting on it, an object will travel at a constant speed due to inertia.
You're fishing for "balanced", but that still doesn't make the statement true.An object on a curved path can have constant speed even though the forceson it are not balanced.
No, most objects do not travel at a constant speed. Factors like forces acting on the object, changes in direction, and external influences can cause an object's speed to vary. Objects may speed up, slow down, or change direction as they move.
227.5 miles
Yes, it is possible for an object to travel at a constant speed in a straight line even when experiencing a net non-zero force as long as the force is balanced by another force (such as friction or tension) in the opposite direction. If the forces are balanced, the object will not accelerate or decelerate, allowing it to maintain a constant speed.
In order for an object to travel with constant velocity the sum of forces acting on it must be zero
Objects do not always travel at a constant speed. Acceleration and deceleration can cause changes in an object's speed. In real-world scenarios, factors like friction, air resistance, and gravity can affect the speed of an object as it moves.
If an object is moving at a constant speed but is accelerating, then its direction of travel must be changing. This means that even though the object is moving at a consistent rate, its velocity is changing because acceleration is a vector quantity that involves both speed and direction.
When you travel in a circle at a constant speed, your velocity (direction and speed) is constantly changing as you move along the curved path. This change in velocity indicates that there is an acceleration acting on the object, known as centripetal acceleration, which is directed towards the center of the circle. This acceleration is required to keep the object moving in a curved path at a constant speed.
The equation for constant speed is distance = speed x time, where distance is the total distance traveled, speed is the constant speed at which the object is moving, and time is the duration of travel.
Yes, when energy is applied to make an object vibrate, it creates sound waves that travel through a medium like air. The vibrations of the object cause the particles in the medium to compress and expand, creating changes in pressure that our ears perceive as sound.