yes
yes
yes
The question hints at an interesting tid-bit that arises in Physics, particularly in regard to Relativity: The mass of an object figures in to any calculation of its inertia, and also in to any calculation of the gravitational force between it and any other object. The question is raised as to whether the object's inertial mass and its gravitational mass are equal, and according to all the experimental and observational evidence so far, the answer is yes, they're equal, and we only have to talk about the object's 'mass', without making the distinction. Assuming that that's true, then it's the object's 'mass' that increases with its speed, and the mutual force of gravitational attraction between it and other objects changes proportionately.
The moe mass and the closer the object, the greater the Gravitational Potential E= -GmM/r energy and Force F=GmM/r^2.
No.
This is false. The answer is that mass and distance affect the gravitational attraction between objects. Air resistance has no effect on this.
It is not the same. Read the Wikipedia article on "mass versus weight" for a detailed discussion.
No. Gravitons have been hypothesized, but not directly detected.
No. Gravitational force is present between every two mass bodies, and the force on each body is the same.
The question hints at an interesting tid-bit that arises in Physics, particularly in regard to Relativity: The mass of an object figures in to any calculation of its inertia, and also in to any calculation of the gravitational force between it and any other object. The question is raised as to whether the object's inertial mass and its gravitational mass are equal, and according to all the experimental and observational evidence so far, the answer is yes, they're equal, and we only have to talk about the object's 'mass', without making the distinction. Assuming that that's true, then it's the object's 'mass' that increases with its speed, and the mutual force of gravitational attraction between it and other objects changes proportionately.
Anything with mass include you and me do exert gravitational force but the earth is massive so it exert more force than any of any small object including us on earth. The gravitational force is done between two mass in following general gravitational law by Newton. F = G.M1m2/R2 We sum up G.M1/R2 as gravity = 9.81 m/s2 for M1 is earth and R = earth radius Between 2 man with m1 and m2 respectively, gravitational force between these two man is at F = G.m1m2/L2 where L = distance between center of mass (you and me for instance). Gravitational force is small compare to earth's gravitational force but it does exist.
The moe mass and the closer the object, the greater the Gravitational Potential E= -GmM/r energy and Force F=GmM/r^2.
It is true that the force of gravity can be described as a force field. Any object having mass will create a gravitational attraction in all directions, with decreasing intensity as the distance from the object increases. Fields are like that. It is different from a force that results from being hit by a baseball, which is exerted only at a specific location.
No. You can think of 'mass' as the amount of material in an object.The strength of the gravitational forces between two objects depends onthe masses of both objects.
Yes, that's basically what causes tides. ===================== And the moon. Lets not forget its role.
True
False. The sun does exert a gravitational force on the moon.
No.
This is technically not true. All forms of mass exert gravitational attraction on one another. However, since the Earth is billions of times more massive than most objects, the gravitational force of the Earth is commonly seen. The gravitational force between a stapler and a computer monitor is not large enough to make the two objects fly across a room to get to one another.