A property of quarks labeled color is an essential part of the quark model. The force between quarks is called the color force. Since quarks make up the baryons, and the strong interaction takes place between baryons, you could say that the color force is the source of the strong interaction, or that the strong interaction is like a residual color force which extends beyond the proton or neutron to bind them together in a nucleus.
Inside a baryon, however, the color force has some extraordinary properties not seen in the strong interaction between nucleons. The color force does not drop off with distance and is responsible for the confinement of quarks. The color force involves the exhange of gluons and is so strong that the quark-antiquark pair production energy is reached before quarks can be separated. Another property of the color force is that it appears to exert little force at short distances so that the quarks are like free particles within the confining boundary of the color force and only experience the strong confining force when they begin to get too far apart. The term "asymptotic freedom" is sometimes invoked to describe this behavior of the gluon interaction between quarks.
Both gravity and the electromagnetic force have infinite range. The color force is limited by its own strength (objects with color charge separated by more than a tiny distance create enough potential energy that it's more energetically favorable to just create a new particle), and the weak force is limited by the mass of its gauge particles to a very small range.
force of gravity pulls flags sabres and riffles down into your hand. the motion of color guard is related to velocity and free fall. equipment when thrown in the air is using a projectile motion and everything in guard has momentum
The answer to the question is in the formula, P = mf, where P = force applied, m = mass of the body and f = acceleration of the body. It also depends on the direction of the force. If the force is towards the motion of the body, the acceleration of the body will increase. If in case the force is acting against the direction of motion of the body, the acceleration will decrease.
Those which have a "color charge": quarks and gluons. The strong nuclear force is so strong that we can't actually directly observe isolated particles with a color charge. It takes so much energy to pull them apart that new particles are created, so all we can ever actually see are color-neutral particles like mesons (a quark-antiquark pair) and baryons (three quarks, or three antiquarks) with color charges that "cancel out". The residual strong force also serves to hold nucleons (neutrons and protons, both of which are baryons) together in the atomic nucleus.
electrostatic force is not a contact force it is force at a distance likely to that of gravitational force.
The residual color force is the force that holds nucleons together in the nucleus. The color force itself holds quarks together in hadrons (protons and neutrons are both hadrons). It is mediated by the exchange of gluons. You can think of the residual color force as being the "leftover" portion of the color force that acts to bind nucleons together. It's somewhat analogous to dipole-dipole interactions, except with color force instead of electromagnetic force.
Force Protection Bravo is typically indicated by the color black.
No, the color (strong nuclear) force is the strongest force.
The strong nuclear, or "color," force. (Technically, the color force holds the protons and neutrons themselves together; the force that holds the nucleons to other nucleons is the residual color force.)
Color does not affect magnetic force. But as magnet gets heated it loses magnetism
In an atom the protons and neutrons are contained within the nucleus by the residual strong ("color") force. the 'color' force is only applicable for fundamental particles Quarks . the proton and neutron have a force similar to the gravitational force.....
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The color force is another term for the strong nuclear force. (It doesn't have anything to do with actual colors.) Basically, the color force is the force binding two (or more) quarks together; it's mediated by the exchange of gauge particles called gluons. A quark will change color from, say, "red" to "green" by emitting a red-antigreen gluon, which can be absorbed by a "green" quark (which will then change to "red").
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