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It is the strong nuclear force that holds the particles together in the nucleus. It is far stronger than the electromagnetic force over short ranges (particle separations of up to 2.5x10-15m), and so can overcome the repulsion that occurs between protons in the nucleus (typical distance approximately 1.25x10-15m) as a result of their positive charges.
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What is the range of beta particles in air as compare to alpha particles?
What is the range of beta particles in air as compare to alpha particles?Read more: What_is_the_range_of_beta_particles_in_air_as_compare_to_alpha_particles
The strong nuclear force acts over a smaller distance than the electrostatic force?
false apex:)
What holds protons and neutrons in the nuclues?
Hi, Ill try to answer this question. In the nucleus, there are two main forces which act. These are; 1. Strong nuclear force & 2. Electrostatic forces The electrostatic force, is the repulsive force which acts between the positively charged protons. This is because like charges repel. (You can see this in action if you place 2 magnets with the north poles facing one another and try to move them together.) The strong nuclear force, is a short-range force, which acts to hold the nucleus together. As the number of nucleons (neutrons and protons) increases, so does the strong nuclear force. As such, it is really the strong nuclear force which holds the nucleus together. Hope this helped.
What is the range of beta particles in the air?
The range of beta particles in the air is up to several hundred feet. Beta particles are emitted by specific types of radioactive nuclei. Potassium-40 is a type of radioactive nuclei that emits beta particles.
What is the strong nuclear force?
A strong attractive force between protons and neutrons
What is the force that affects all particles in a nucleus and acts only over a short range?
Friction
What is the force that affects all particles in a nucleus acts only a short range?
The strong nuclear force is responsible for binding protons and neutrons together in the nucleus. It is a short-range force that only acts over distances on the order of a few femtometers.
Why is the strong nuclear force a short range force?
they attract one another
What range does a strong nuclear force act on?
The strong nuclear force acts on particles within the atomic nucleus, which is typically within a range of about 1 femtometer (10^-15 meters). This force is responsible for binding protons and neutrons together in the nucleus.
Why in heavier atoms neutrons and protons are not equal?
There are 3 forces at work in an atomic nucleus, two which cause particles to attract each other, those being the strong nuclear force and the weak nuclear force, and one which causes some particles (protons) to repel each other, that being the electromagnetic force. The force of gravity is entirely negligible within an atomic nucleus. The electromagnetic force is a relatively long range type of force. It does decrease proportionally to the square of the distance between the particles in question, but the distances involved in an atomic nucleus are extremely tiny, and the electromagnetic force operates efficiently throughout even a very large nucleus. The strong nuclear force, however, is a short range force, which decreases proportionally to the sixth power of the distance between particles. So, while it is the predominant force within a small nucleus, it loses ground to the electromagnetic force as the nucleus gets larger. Adding neutrons is a way to help glue a large nucleus together. Neutrons experience the strong nuclear attraction, but they do not repel each other, unlike protons. And neutrons also attract protons.
Which force has a longer range the electric force or the strong force?
The electric force has a longer range than the strong force. The electric force can act over long distances, such as between charged particles in atoms and molecules, while the strong force is restricted to acting only over very short distances within atomic nuclei.
If the nucleus is made up of positive and negative electrons why doesn't it fall apart?
the nucleusSimply: the nucleus is NOT made up of positive and negative electrons. (thought you have to understand, if it were, the opposing charges of the particles would hold it together, NOT make it fall apart)the nucleus is made up of positive particles (protons) and neutral particles (neutrons). electrons are always NEGATIVELY charged and are not in the nucleus.while it is true that atoms are made of positive and negative charges wich attract, the protons in the nucleus should repel based on this theory. the reason why the nucleus stays together is because there is a nuclear force that supercedes the magnetic and gravitational forces. neutrons that have a neutral charge also help the nucleus stay together because they buffer between protons.
Fundamental forces Shortest to longest range in the four fundamental forces?
The four fundamental forces from shortest range to longest range are: Strong nuclear force - operates within the nucleus of an atom, holding protons and neutrons together. Weak nuclear force - responsible for certain types of radioactive decay and has a range comparable to the diameter of an atomic nucleus. Electromagnetic force - acts between charged particles and has an infinite range in a vacuum. Gravitational force - the weakest force but acts over infinite distances, affecting all objects with mass.
The strong nuclear force is an attractive force that binds .?
Protons and neutrons together in the nucleus
What is range of strong nuclaer force?
The range is within 10-15 Meter (diameter of medium sized nucleus)
What type of forces hold sub atomic particles together?
The largest force acting with in an atom is the van der wells force. It is several orders of magnitude stronger the the weak nuclear forces. It really depends on what sub atomic particles you are talking about.
What is the descriptive term does not apply to nuclear force?
The descriptive term that does not apply to nuclear force is "long-range." Nuclear force is a short-range force that acts within the atomic nucleus to bind protons and neutrons together.
