When it is close to the nucleus because the postively charged protons attract the negatively charged electrons
Yes, that's correct. The closer an electron is to the nucleus of an atom, the stronger the attractive force between the nucleus and the electron. This attraction is due to the electrostatic force between the positively charged nucleus and the negatively charged electron.
attractive
Electrons are usually found near the nucleus due to the attractive force of the positively charged protons in the nucleus. This force keeps the electrons in orbit around the nucleus rather than floating away. The balance between the attractive force of the protons and the repulsive force of the electrons determines the electron's energy level and distance from the nucleus.
Since there is more mass in the uranium nucleus, there would be a proportionally stronger gravitational force in the uranium nucleus. However, the gravitational force is the weakest force, and it is followed in scale by the weak atomic force, the electromagnetic force, and the strong atomic force, which are many orders of magnitude greater, so, in effect, the gravitational force does not even count in the vicinity of the nucleus.
The nucleus of an atom, having a positive charge, exerts an attractive force on the atom's negative electrons.
Yes, that's correct. The closer an electron is to the nucleus of an atom, the stronger the attractive force between the nucleus and the electron. This attraction is due to the electrostatic force between the positively charged nucleus and the negatively charged electron.
In a stable nucleus, the attractive nuclear forces (such as the strong nuclear force) are stronger than the repulsive forces (such as the electromagnetic force) between protons. This balance of forces keeps the nucleus stable and prevents it from breaking apart.
The attractive force between particles in the nucleus is known as the strong nuclear force. It is responsible for holding protons and neutrons together in the nucleus. This force is extremely strong but acts only over very short distances.
The phase change that involves an increase in the attractive force between molecules is condensation. During condensation, a gas transitions into a liquid as the molecules lose energy and move closer together, resulting in stronger attractive forces.
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 strong nuclear force is a powerful attractive force that binds protons and neutrons together in the atomic nucleus. It overcomes the electrostatic repulsion between positively charged protons to keep the nucleus stable.
Ionic bonds are formed by the attraction of the positively-charged ion to the negatively-charged ion, and the closer they are, the more attractive force. It is just like two magnets of opposite poles, you can slowly bring them together until the attractive force gets strong enough to slam them together.
the attraction or repulsion is stronger at the end
The electrons closest to the nucleus are held with the most force due to the stronger electrostatic attraction between the positively charged nucleus and negatively charged electrons. These inner electrons have higher energy levels and are less shielded by other electrons, resulting in a stronger force of attraction.
attractive
Electrons are usually found near the nucleus due to the attractive force of the positively charged protons in the nucleus. This force keeps the electrons in orbit around the nucleus rather than floating away. The balance between the attractive force of the protons and the repulsive force of the electrons determines the electron's energy level and distance from the nucleus.
Since there is more mass in the uranium nucleus, there would be a proportionally stronger gravitational force in the uranium nucleus. However, the gravitational force is the weakest force, and it is followed in scale by the weak atomic force, the electromagnetic force, and the strong atomic force, which are many orders of magnitude greater, so, in effect, the gravitational force does not even count in the vicinity of the nucleus.