False
Because gravity is constantly pulling on the projectile while the projectile is trying to move forward in a straight line, the projectile will move in a CURVED path and fall down to earth.
gravity and inertia combine to keep earth in orbit because the suns gravity keeps the earth in orbit and the inertia keeps the earth from going in a straight line.
Since the Sun has the most mass of all the objects in the solar system, it has the strongest gravitational pull. If there were another object in the solar system with more mass than the Sun, the planets (and the Sun itself) would orbit it. If there were no Sun's gravity (or other gravitational forces) the planets would travel in straight lines instead of orbits.
A combination of the bodies' inertia, and the Sun's gravitational attraction.
Yes, but the Gravitational pull is also at play.
Yes, man-made satellites are held in orbit by the gravitational pull of a planet, such as Earth. The balance between the gravitational force pulling the satellite toward the planet and the satellite's inertia, which tries to move it in a straight line, creates a stable orbit. This interplay allows satellites to maintain their paths around the planet without falling back to the surface.
Because the sun's gravitational pull and inertia hold it.
Gravity and inertia are two separate forces that act on objects. Gravity is the force that pulls objects towards each other, while inertia is an object's resistance to changes in motion. Inertia causes objects to continue moving in a straight line unless acted upon by an external force, such as gravity pulling the object towards a gravitational center. So, gravity can influence an object's inertia by changing its motion through acceleration or deceleration.
Newton concluded that the combination of the gravitational force between the Earth and the Sun, and the Earth's inertia moving it in a straight line, keep the Earth in orbit around the Sun.
The rotational inertia of your leg is greater when your leg is straight because the mass is distributed further away from the axis of rotation. When your leg is bending, the mass is closer to the axis of rotation, resulting in a lower rotational inertia.
Its inertia.
The revolution (not rotation) of the planets around the sun is not an example of straight gravity. It is a combination of two forces: gravity and inertia. Gravity, working without inertia, would pull the planets into the sun, in a straight line. Inertia, working without gravity, would send the planets sailing through the galaxy, in a straight line. The total effect of these two opposing forces is an orbital path. Gravity and inertia, in this situation, are also referred to as centripetal and centrifugal forces.
gravity and inertia combine to keep earth in orbit because the suns gravity keeps the earth in orbit and the inertia keeps the earth from going in a straight line.
To keep moving in a straight line. This is rather hard to show because the gravitational pull of the Earth is hard to escape without a rocket.
the earth revolves around the sun because of two main components in space. Inertia and gravitational pull. The sun has a gravitational pull on all of the planets but to keep them from colliding with the sun inertia gives them the motion to keep revolving and not getting closer to the sun.
Tides
inertia and gravitational pull
Since the Sun has the most mass of all the objects in the solar system, it has the strongest gravitational pull. If there were another object in the solar system with more mass than the Sun, the planets (and the Sun itself) would orbit it. If there were no Sun's gravity (or other gravitational forces) the planets would travel in straight lines instead of orbits.