Yes, it is compulsory that either the attractive forces or the repulsive forces be stronger.an atom has either +ve charge or -ve charge.if positive charge is stronger than negative charge in any atom then forces of attraction will be stronger. if positive charge is weaker than negative charge then forces of repulsion will dominate.
The strong nuclear force is stronger than the repulsion between protons. The strong nuclear force is responsible for holding the nucleus together by overcoming the electrostatic repulsion between positively charged protons.
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 strong nuclear force is much stronger than the electric force of repulsion, by about 100 times at nuclear distances. This is what allows protons and neutrons to be held together in the nucleus despite the repulsive electric forces between positively charged protons.
No, it is attractive. The strong nuclear force, as it is known, is what overcomes the coloumbic repulsion of the positively charged protons, which would otherwise tend to fly apart due to the electromagnetic force (like charges repulse).
The nuclear force is stronger than the electromagnetic force. The nuclear force holds particles in the nucleus together, overcoming the repulsion between positively charged protons. The electromagnetic force is responsible for interactions between charged particles, but it is weaker at short distances compared to the nuclear force.
The strong nuclear force is stronger than the repulsion between protons. The strong nuclear force is responsible for holding the nucleus together by overcoming the electrostatic repulsion between positively charged protons.
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 pull of a magnet is usually stronger than its push. This is because the magnetic force is generated by the alignment of magnetized atoms within the material, resulting in a stronger attraction (pull) between magnets compared to the repulsion (push) force.
There is a stronger force, stronger than the electrostatic force, that keeps nucleons (protons and neutrons) together. It is not enough to hold two protons together if they are alone, but the neutrons provide additional attraction. This force is known as the "strong force".There is a stronger force, stronger than the electrostatic force, that keeps nucleons (protons and neutrons) together. It is not enough to hold two protons together if they are alone, but the neutrons provide additional attraction. This force is known as the "strong force".There is a stronger force, stronger than the electrostatic force, that keeps nucleons (protons and neutrons) together. It is not enough to hold two protons together if they are alone, but the neutrons provide additional attraction. This force is known as the "strong force".There is a stronger force, stronger than the electrostatic force, that keeps nucleons (protons and neutrons) together. It is not enough to hold two protons together if they are alone, but the neutrons provide additional attraction. This force is known as the "strong force".
The nuclear membrane nuclear membrane strong nuclear force, stronger than electrostatic repulsion
The strong nuclear force is much stronger than the electric force of repulsion, by about 100 times at nuclear distances. This is what allows protons and neutrons to be held together in the nucleus despite the repulsive electric forces between positively charged protons.
No, it is attractive. The strong nuclear force, as it is known, is what overcomes the coloumbic repulsion of the positively charged protons, which would otherwise tend to fly apart due to the electromagnetic force (like charges repulse).
Two protons alone won't stick together - their electrostatic repulsion is too strong. If there are also neutrons involved, the strong force can become stronger than the electrostatic repulsion - for example, in the simplest case of Helium-3, two protons and one neutron will stick together. The neutron helps provide the strong force to keep the protons together; the two protons by themselves don't have enough attraction through the strong force to overcome the electrostatic repulsion.
No. Ionic bonds are typically stronger. it is because ionic bond has more intermolecular force of attraction.
The strong nuclear force is stronger than the electric repulsion between protons at very small distances within the nucleus. It is responsible for holding protons and neutrons together in the nucleus despite the electromagnetic repulsion between protons.
The nuclear force is stronger than the electromagnetic force. The nuclear force holds particles in the nucleus together, overcoming the repulsion between positively charged protons. The electromagnetic force is responsible for interactions between charged particles, but it is weaker at short distances compared to the nuclear force.
The force of gravity is a universal force of attraction between objects with mass, acting over any distance, while the force between electric charges (Coulomb's law) is the force of attraction or repulsion between charged particles, based on their charges and distances. Gravity is much weaker than the electromagnetic force, but it has an infinite range, unlike the electromagnetic force.