Put two ends of two magnets together and the force will repel the other.
The two forces are the strong nuclear force and the electromagnetic force. The strong nuclear force acts to hold the nucleus together by overcoming the repulsive electromagnetic force between positively charged protons. This creates a delicate balance between the attractive strong nuclear force and the repulsive electromagnetic force, resulting in a "nuclear tug of war" within the nucleus.
A hover needs a magnet to create a magnetic field that interacts with a conductive surface below it. This interaction generates electrical currents that produce a repulsive force, enabling the hover to lift and stay suspended.
The opposite force to the strong nuclear force is the electromagnetic force. The strong nuclear force holds atomic nuclei together, while the electromagnetic force governs interactions between charged particles.
The repulsive force inside the nucleus is primarily caused by the electrostatic repulsion between protons, which are positively charged particles. Despite the strong nuclear force that holds protons and neutrons together, the inherent charge of protons leads to a repulsive interaction when they are in close proximity. Additionally, the presence of neutrons helps to mitigate this repulsion by providing an attractive force without adding to the repulsive electrostatic effects, thus stabilizing the nucleus.
The force between two perpendicular current carrying wires is zero, as the magnetic field produced by each wire acts perpendicular to the other wire's current. As a result, there is no component of the magnetic force that can act along the direction of the wires.
The force that surrounds magnetic objects is called a magnetic field. This field is responsible for the attractive and repulsive forces experienced between magnets and magnetic materials.
Two similar ends of a magnet produce a repulsive force, which means that they will push away from each other. This force is the result of the alignment of the magnetic domains within the magnet creating a magnetic field that interacts between the like poles.
Electrostatic forces
Yes.Yes.Yes.Yes.
Two similar ends of a magnet (two north poles or two south poles) will produce a repulsive force, meaning they will push away from each other. This is due to the alignment of magnetic fields around the ends of the magnets.
Electromagnets produce a magnetic force when an electric current passes through them. This force is the result of the interaction between the magnetic field generated by the current and any nearby magnetic materials or other electromagnets.
Compass plants respond to Earth's magnetic field, but do not produce their own magnetic force.
If the magnetic poles are alike (north-north or south-south), they will repel each other due to the inverse square law of magnetic force. The force of repulsion increases as the distance between the like poles decreases.
The two forces are the strong nuclear force and the electromagnetic force. The strong nuclear force acts to hold the nucleus together by overcoming the repulsive electromagnetic force between positively charged protons. This creates a delicate balance between the attractive strong nuclear force and the repulsive electromagnetic force, resulting in a "nuclear tug of war" within the nucleus.
A magnet can exert a force on a non-magnetic object through magnetic induction. When a magnet is brought near a non-magnetic object, the object can become temporarily magnetized and experience an attractive or repulsive force depending on the orientation of the object and the magnet.
Antimony is not magnetic in standard conditions because it is a diamagnetic material, meaning it creates a weak repulsive force in the presence of a magnetic field. It does not retain magnetization when the external magnetic field is removed.
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.