Yes, because there is less gravity on the moon.
Also, because there is no air friction on the Moon.
However, a frisbee thrown on the Moon will not travel as far as one properly thrown on Earth, because the shape of the frisbee generates lift which will keep it flying farther. With no air on the Moon, a frisbee cannot "fly".
You can throw a ball much farther on the moon compared to Earth due to its weaker gravity, which is about one-sixth the strength of Earth's gravity. This means that objects on the moon experience less gravitational pull, allowing them to travel further when thrown.
I don't think so.
To orbit the object.
The ball thrown on the moon would travel a greater distance before hitting the ground due to the moon's lower gravity compared to Earth. The lower gravity allows the ball to stay in the air for a longer time and cover more distance before falling back down compared to the ball thrown on Earth with its higher gravity.
Outer planets are farther from the Sun and have larger orbits, so they travel at slower speeds to maintain their orbit. This is due to the inverse square law of gravity, which states that the gravitational force between two objects decreases with distance. As a result, outer planets require longer periods to complete their orbits compared to inner planets.
If thrown horizontal from same height the faster object will travel farther horizontally, but time to fall is the same. If thrown straight up, the faster object will take longer to fall
if the bal is thrown by making 45 degree angles. with the ground..it will travel maximum distance...
Yes, an object will travel farther horizontally if launched from a higher elevation due to having more initial potential energy which can be converted into kinetic energy. This is known as the principle of conservation of energy. So, jumping horizontally from a higher elevation will allow you to travel farther than if you were to jump from ground level.
A lighter object will generally go farther in a catapult because it can be launched with more speed due to its lower mass. The lighter object requires less force to accelerate and it experiences less air resistance during flight, allowing it to travel farther.
It depends on the circumstances. Generally, a football will go farther when thrown due to its aerodynamic shape and weight distribution. A balloon will drift with the wind and may travel far if caught in a strong breeze.
If gravity did not affect a horizontally thrown ball, it would travel in a straight line horizontally at a constant velocity. Gravity only acts vertically, causing the ball to fall towards the ground, so without this vertical force, the horizontal motion would remain unaffected.
Objects that are thrown follow a curved path due to the influence of gravity and the initial forward velocity given to the object. Gravity pulls the object downward, causing it to accelerate, while the initial forward velocity allows the object to travel horizontally. The combination of these two forces results in the object following a curved trajectory known as a parabola.
the large colon makes a transverse turn several inches up. the object cannot travel up any farther past that. the only way to get it out is to try and push. if that is unsuccessful, please seek medical attention.
Air resistance can affect the trajectory of a projectile launched by a catapult by slowing it down as it travels through the air. The greater the air resistance, the shorter the distance the object will travel. Designing a catapult with aerodynamic components can help minimize the impact of air resistance on the projectile's flight path.
Generally, smaller objects are carried farther by the wind because they have less surface area to resist the wind's force. A lighter weight can also enable an object to catch more gusts and travel further.
People could travel farther and more frequently. Also, rail travel was safer
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.