The electric repulsion is a bit stronger - that's why there are no "diprotons".
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 strong nuclear force overcomes the repulsive force of protons, holding them together in the nucleus. This force is much stronger than the electromagnetic force that causes the repulsion between the positively charged protons.
In a small nucleus, such as oxygen, xenon, or any of the lighter elements, the strong force generated by the protons and neutrons is stronger than the repulsion between protons, and the nucleus holds together. In a larger nucleus, such as uranium, curium, or the heavier elements, the strong force isn't strong enough to hold it together, and the electromagnetic force pulls it to pieces.
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 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 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.
The nuclear membrane nuclear membrane strong nuclear force, stronger than electrostatic repulsion
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 strong nuclear force, aka the strong interaction.
The strong nuclear force overcomes the repulsive force of protons, holding them together in the nucleus. This force is much stronger than the electromagnetic force that causes the repulsion between the positively charged protons.
There is a "strong nuclear force" that keeps it together. In larger atoms like uranium, this force is weaker and may break, resulting in fission. If you found this helpful please click trust below
Protons in the nucleus of an atom are held together by the strong nuclear force, which is stronger than the electromagnetic force that causes repulsion between positively charged particles. This strong force overcomes the electromagnetic repulsion, keeping the protons bound in the nucleus. If the balance between these forces is disrupted, such as in nuclear fission reactions, the nucleus can split apart.
In a small nucleus, such as oxygen, xenon, or any of the lighter elements, the strong force generated by the protons and neutrons is stronger than the repulsion between protons, and the nucleus holds together. In a larger nucleus, such as uranium, curium, or the heavier elements, the strong force isn't strong enough to hold it together, and the electromagnetic force pulls it to pieces.
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 overcomes the electromagnetic repulsion between protons and binds protons and neutrons together in the nucleus of an atom. This force is attractive and acts over a very short range, keeping the nucleus stable.
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.