Yes, the projectile needs to be accelerated to overcome the acceleration of gravity.
Yes, the motion of a projectile fired at an angle is an example of uniformly accelerated motion in the vertical direction due to gravity. In the horizontal direction, the motion is at a constant velocity unless affected by air resistance. Overall, the combination of these two motions results in a curved path known as a parabola.
Yes, projectile motion is an example of uniformly accelerated motion in two dimensions. This is because the acceleration due to gravity acts vertically downwards throughout the motion, causing the object to accelerate at a constant rate in the vertical direction while moving horizontally at a constant velocity.
The vertical motion of a projectile is affected by gravity. Gravity acts to accelerate the projectile downward while it is in motion, causing its vertical velocity to increase or decrease accordingly.
The vertical motion is accelerated downwards, at a rate of about 9.8 meters per square second. The horizontal motion is not affected. This all assumes that air resistance is insignificant, and can therefore be ignored.
False. In projectile motion, the object moves in a curved path under the influence of gravity. The vertical motion is accelerated due to gravity, while the horizontal motion remains constant (assuming no external forces).
Yes.
Yes, the motion of a projectile fired at an angle is an example of uniformly accelerated motion in the vertical direction due to gravity. In the horizontal direction, the motion is at a constant velocity unless affected by air resistance. Overall, the combination of these two motions results in a curved path known as a parabola.
Projectile motion has two components horizontal motion and vertical motion. Gravity affects only the vertical motion of projectile motion.
The vertical motion of a projectile is affected by gravity. Gravity acts to accelerate the projectile downward while it is in motion, causing its vertical velocity to increase or decrease accordingly.
Yes, projectile motion is an example of uniformly accelerated motion in two dimensions. This is because the acceleration due to gravity acts vertically downwards throughout the motion, causing the object to accelerate at a constant rate in the vertical direction while moving horizontally at a constant velocity.
The vertical motion is accelerated downwards, at a rate of about 9.8 meters per square second. The horizontal motion is not affected. This all assumes that air resistance is insignificant, and can therefore be ignored.
False. In projectile motion, the object moves in a curved path under the influence of gravity. The vertical motion is accelerated due to gravity, while the horizontal motion remains constant (assuming no external forces).
The path of a projectile follows a parabolic trajectory because it is influenced by both horizontal and vertical acceleration due to gravity. The horizontal motion is constant and unaffected by gravity, while the vertical motion is uniformly accelerated downward due to gravity. The combination of these two independent motions results in a parabolic path.
No, projectile motion involves motion in two dimensions - one horizontal and one vertical. The vertical motion is affected by gravity, while the horizontal motion is independent of gravity, assuming no air resistance.
No, horizontal motion does not affect the vertical motion of a projectile. The two components of motion (horizontal and vertical) are independent of each other in the absence of external forces such as air resistance. The vertical motion is governed by gravity, while the horizontal motion remains constant.
Projectile motion consists of two components: horizontal motion and vertical motion. The horizontal component is constant and unaffected by gravity. The vertical component is influenced by gravity and accelerates downwards. By combining these two components, the path of a projectile can be accurately predicted using equations of motion.
The independence of horizontal and vertical motion allows us to analyze projectile motion in these two directions separately. This means that the horizontal motion, affected by only the initial horizontal velocity, is not impacted by the vertical motion, which is influenced by gravity. Thus, we can treat the motion along each axis independently when studying projectile motion.