Throwing baseablls and footballs, kicking soccer balls, firing bullets, etc.
The horizontal motions of a projectile are independent of its vertical motion. This means that the horizontal velocity remains constant and unaffected by gravity. Additionally, the horizontal distance traveled by a projectile is determined by the initial horizontal velocity and the time of flight.
Examples of projectile motion include a baseball being thrown, a basketball being shot, or a cannonball being fired. These motions can be solved using equations of motion, such as the kinematic equations, to calculate the initial velocity, angle of launch, and time of flight. Additionally, the range and maximum height of the projectile can be determined using these equations.
Projectile motion involves two simultaneous motions: 1) horizontal motion at a constant velocity (no acceleration) and 2) vertical motion under the influence of gravity (accelerating downward at 9.8 m/s^2). The combination of these motions results in a curved path known as a parabola.
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.
a linear motion around the house can be in when a screw is being turned by a screwdriver or when you walk
The horizontal motions of a projectile are independent of its vertical motion. This means that the horizontal velocity remains constant and unaffected by gravity. Additionally, the horizontal distance traveled by a projectile is determined by the initial horizontal velocity and the time of flight.
Examples of projectile motion include a baseball being thrown, a basketball being shot, or a cannonball being fired. These motions can be solved using equations of motion, such as the kinematic equations, to calculate the initial velocity, angle of launch, and time of flight. Additionally, the range and maximum height of the projectile can be determined using these equations.
well...projectile motion is made of two different motions, or movements- horizontal movement and vertical movement so... i guess that it
Projectile motion involves two simultaneous motions: 1) horizontal motion at a constant velocity (no acceleration) and 2) vertical motion under the influence of gravity (accelerating downward at 9.8 m/s^2). The combination of these motions results in a curved path known as a parabola.
Running
airplane taking off
well...projectile motion is made of two different motions, or movements- horizontal movement and vertical movement so... i guess that it
well...projectile motion is made of two different motions, or movements- horizontal movement and vertical movement so... i guess that it
well...projectile motion is made of two different motions, or movements- horizontal movement and vertical movement so... i guess that it
motion of a simple pendulum
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.
when a body is thrown at an angle in a projectile motion, the vertical component of the velocity is vcos(B) ..where v is the velocity at which the body is thrown and B represents the angle at which it is thrown.Similarly horizontal component is vsin(B). these components are useful in determining the range of the projectile ,the maximum height reached,time of ascent,time of descent etc.,