It is only attractive in nature.
I am not sure which nuclear force you talk about. Electrical forces of the nucleus are repulsive to the positively charged. There are "strong forces" and the like which are attractive.
The attraction is greater than the repulsion. If the repulsion was greater, then the protons would be pushed out of the nucleus and the atom would cease to exist.
No, the force of attraction is greater. If the repulsion was greater than the attraction, then the protons would be pushed out of the nucleus and the atom would cease to exist.
less than!!
The principle is that there is a force of repulsion between two objects that are both charged with the same sign of charge, i.e. both negative or both positive.
Yes, the rules for applying attraction and repulsion forces are the same for electric charges and magnets.
Both have the concept of variation of force inversely with the square of the distance. But in case of coulomb we have electric charges and in case of newton's gravitation law we have masses. Coulomb's force can be either attractive and repulsive where as Newton's is only attractive
The strength of the gravitational force of attraction between two objects is proportional to both masses.
Nuclear binding energy, more correctly called nuclear force or residual binding energy, is released when a nucleus transitions from a state requiring more nuclear force to one requiring less nuclear force. An example is where a heavy nucleus such as uranium is split into two lighter nuclei. Another example is where two light nuclei, such as hydrogen, is fused in to a heavier nucleus. In both cases, the nuclear force required to sustain the result is less than the original component(s), and the differential nuclear force (and the corresponding mass) is released.
strong nuclear force. The nucleus is held together by both the strong nuclear force and the weak nuclear force. The electron is bond to the nucleus by electro-static forces.
Gravitational force exists between masses. Gravitational force is only of attractive. No repulsive gravitational force has been found so far. But in electrostatics and magnetism, the force between electric charges and magnetic poles respectively are of both repulsive and attractive. Nuclear force between the nucleons within the nucleus of the atom is also attractive in nature.
There are only two forces that act at a distance:gravity, andelectromagnetism.Magnetic fields are sometimes referred to as a third force, however magnetism and electrostatic forces are both examples the electromagnetic force.
Gravity is a force of attraction only. Newton's law describes only an inverse square attraction, which is different than the inverse square law of electric charge which allows both attraction and repulsion. Within the theory of general relativity, gravity has a different interpretation as curvature of space-time, but that is not essential to the present question.
The "strong force" as it is known (also affectionately as "nuclear glue") binds both neutrons and protons to one another, despite electrostatic repulsion that exists between them. It is one of the four fundamental forces of nature.
The force (equal on both objects) is measured in newtons.
Both deutrium and tritium have the same charge e, so the force of repulsion 1/4pi epsilon not * e2 / r2 here r is the distance between the two atoms.
The principle is that there is a force of repulsion between two objects that are both charged with the same sign of charge, i.e. both negative or both positive.
Yes, the rules for applying attraction and repulsion forces are the same for electric charges and magnets.
Both have the concept of variation of force inversely with the square of the distance. But in case of coulomb we have electric charges and in case of newton's gravitation law we have masses. Coulomb's force can be either attractive and repulsive where as Newton's is only attractive
When electrons are shared between atoms, the nuclei of both atoms experience attraction towards the electrons and vice versa. At a certain distance, the attraction is maximal because the repulsion between the nuclei is small while the attraction of each nuclei to the electrons is strong. Thus, the atoms are held together by their attraction to the shared electrons.
The strength of the gravitational force of attraction between two objects is proportional to both masses.