The big why in physics, its effects have been exhaustively examined, its cause however remains elusive, perhaps for ever.
The Answer!
Galileo said the language of nature is mathematics. Physicists are focusing on experiments not the language of Nature. Here is the mathematical derivation of Gravity!
W = [c,V][,P] = [c0 -V.P, cP + 0V +VxP] = [-vp, cP] = [-mGM/r, cP]
Gravity Energy W is a Quaternion energy, consisting of a scalar energy, -mGM/r, Newton's Law AND cP the vector energy, the so-called "Dark Energy".
The law of vectors V and P=mV give the negative sign when the vectors are a parallel product,
V.P= -vp. The sign is positive if vectors are anti-parallel.
The Curl product VxP is zero when the vectors are parallel or anti-parallel.
Notice that velocity is a Quaternion also [c, V] and the scalar velocity is c, the speed of light and the vector velocity is V. This is the manifestation of the four Dimensional Space we live in!
The fourth dimension is one scalar dimension r=ct and three vector dimensions, [r, Ix, +Jy + Kz]. This not the space time of Einstein.
This Universe is stationary as 0 = XW=[d/dr,Del][-vp.cP]=[vp/r - cDel.P, cdP/dr - Del vp]
0=[vp/r -cp/r, mdV/dt + muR/r^3]
The attractive force between masses is known as gravity. It is responsible for keeping planets in orbit around stars and objects on Earth grounded.
The electric force between two protons is much stronger than the gravitational force between them. The electric force is about 10^36 times stronger than the gravitational force at the atomic scale. This is why charged particles interact primarily through electromagnetic forces and not gravitational forces.
mass is a characterstic property of any matter if a matter exits it must have mass by which it is pulled towards centre of earth bt gravitational force is a kind of attractive force which acts btween centre of mass of 2 or more masses
Yes, there is a gravitational force between two students sitting in a classroom. However, the force is extremely small compared to other forces present in the classroom and is usually negligible for practical purposes.
There's no reason to suspect that there is such a thing as antigravity. As far as we know, all mass has the same "gravitational charge" (mass), and the force is always an attractive force, never a repulsive force. So, sorry, there's no such thing as antigravity.
Gravitational force.
Gravitational force is always attractive, meaning that it always pulls objects towards each other due to their mass.
The gravitational force is always attractive.
No, the gravitational force is not negative. It is always positive and attractive, meaning it pulls objects towards each other.
A black hole has the greatest force of gravitational attraction. Even light rays can't escape.
Gravitational force and magnetic force both act at a distance without direct contact. They both follow an inverse square law, meaning the strength decreases with distance squared. However, gravitational force is always attractive between masses, while magnetic force can be attractive or repulsive between charges.
The electric force is stronger than the gravitational force because electric charges can be positive or negative, allowing for attractive and repulsive interactions, while gravity is always attractive. Additionally, the strength of the electric force is determined by the charge of the particles involved, which can be much larger than the masses involved in gravitational interactions.
ATTRACTIVE FORCE is when you go to a casino and you have no change and you need to go to a change machine GRAVATATIONAL FORCE is when you go to blackpool and you dont go on the big one
Probably newton...Since force is newton.& if its not "newton" then its momentum.
Gravitational force is the attractive force between two objects with mass. It is responsible for holding planets in orbit around the sun and objects on the Earth's surface. The force is determined by the masses of the objects and the distance between them.
Gravitational force is a natural phenomenon where objects with mass are attracted toward one another. It is always attractive, meaning it pulls objects together. The strength of gravitational force depends on the masses of the objects and the distance between them, following the inverse square law.
No. Gravitational force is the attractive force that objects of mass have on other matter (including light). Pushing a grocery cart is an example of force, just not a gravitational force. Now, dropping a grocery cart would be an example of gravitational force, since it is the Earth's mass that is attracting it towards the ground.