A couple of perfect examples are:
-- the driver sitting in a car cruising along a level highway
-- the dog sitting in a little red wagon being pulled on level ground by a little girl.
In each case, the passenger's weight is the gravitational force, acting vertically, while
the vehicle is constrained to move horizontally. The gravitational force does no work
in either situation, because the (vertical) distance through which it acts is zero.
Yes, a body can possess velocity in both horizontal and vertical directions simultaneously. This is known as projectile motion, where an object is moving in a parabolic path due to a combination of horizontal and vertical velocities.
The sum of all forces applied to an object is called the net force. This net force can be separated into horizontal and vertical components using vector analysis. The horizontal component affects the object's motion in the horizontal direction, while the vertical component affects the object's motion in the vertical direction.
Projectile motion is curved because it involves both horizontal and vertical components of motion. The curved path is a result of the object experiencing a constant acceleration due to gravity in the vertical direction, while moving at a constant velocity in the horizontal direction. This combination of horizontal and vertical motions creates the characteristic parabolic trajectory of a projectile.
Motion in two dimensions involves an object moving in both the x and y directions simultaneously. This type of motion is characterized by both a horizontal component (x-direction) and a vertical component (y-direction). An example is a projectile moving through the air, where the path is influenced by both horizontal and vertical forces.
The motion in the vertical direction is independent of the motion in the horizontal direction. This means that an object can move vertically without affecting its horizontal motion and vice versa. The two motions can occur simultaneously without one influencing the other.
Yes, a body can possess velocity in both horizontal and vertical directions simultaneously. This is known as projectile motion, where an object is moving in a parabolic path due to a combination of horizontal and vertical velocities.
During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.
The sum of all forces applied to an object is called the net force. This net force can be separated into horizontal and vertical components using vector analysis. The horizontal component affects the object's motion in the horizontal direction, while the vertical component affects the object's motion in the vertical direction.
Projectile motion is curved because it involves both horizontal and vertical components of motion. The curved path is a result of the object experiencing a constant acceleration due to gravity in the vertical direction, while moving at a constant velocity in the horizontal direction. This combination of horizontal and vertical motions creates the characteristic parabolic trajectory of a projectile.
Motion in two dimensions involves an object moving in both the x and y directions simultaneously. This type of motion is characterized by both a horizontal component (x-direction) and a vertical component (y-direction). An example is a projectile moving through the air, where the path is influenced by both horizontal and vertical forces.
The motion in the vertical direction is independent of the motion in the horizontal direction. This means that an object can move vertically without affecting its horizontal motion and vice versa. The two motions can occur simultaneously without one influencing the other.
Yes, in projectile motion, the vertical component of motion is influenced by the initial velocity in the vertical direction. The horizontal and vertical components of motion are independent of each other, with the horizontal component being influenced by the initial velocity in the horizontal direction.
Horizontally projected refers to an object or motion that is launched or moving parallel to the ground in a left-to-right or right-to-left direction, without any vertical component. This means the object is moving along a straight path in a horizontal plane.
Only if the direction is constant and the speed is constant.
In the absence of air resistance, the force of gravity has no effect on the horizontal component of a projectile's velocity, and causes the vertical component of its velocity to increase by 9.8 meters (32.2 feet) per second downward for every second of its flight.
Time on horizontal, Distance on Vertical
The motion of an object thrown at an angle is a combination of both horizontal and vertical motion. The horizontal motion is constant and is controlled by the initial velocity in the x-direction. The vertical motion is influenced by gravity, causing the object to follow a curved path.