It sticks
They will combine to make a single magnetic field.
competition for limited resources. This competition can drive natural selection, leading to the divergence of species or the partitioning of resources to reduce competition. Over time, this can result in the development of distinct ecological niches to reduce overlap and promote coexistence.
Human tissue is composed mainly of water, which is diamagnetic and weakly repels magnetic fields. This property of human tissue prevents magnets from sticking to our bodies the way they do to materials like iron or steel. Additionally, the magnetic field of a typical refrigerator magnet is not strong enough to overcome the repulsive forces of human tissue.
this theory was put forward by Heitler and London in 1927 and further developed by Pauling and others according to this theory A covalent bond is formed by partial overlap of two half filled atomic orbitals containing electrovs with opposite spins
While Earth itself cannot create magnets out of ferromagnetic materials, it does have a magnetic field that originates from its core made of iron and nickel. The movement of these materials creates a magnetic field that extends around the planet, influencing compasses and other magnetic materials on Earth's surface.
The term for the attraction or repulsion between magnets is called magnetic force. This force is a result of the magnetic fields produced by the magnets interacting with each other.
They will combine to make a single magnetic field.
When magnetic fields overlap, they can either reinforce each other (adding up to a stronger magnetic field) or cancel each other out (weakening or nullifying the magnetic field). The result depends on the direction and strength of the overlapping magnetic fields.
Magnets have magnetic fields that exert attractive or repulsive forces on other magnets within their vicinity. These fields interact with each other through magnetic force, causing the magnets to either attract or repel each other without physical contact. This phenomenon is a result of the alignment of magnetic moments within the materials.
forever
Moving electric charges produce a magnetic field, which can interact with other magnetic fields, including those produced by permanent magnets. This interaction can result in forces being exerted on the moving charges and/or the magnets, leading to phenomena such as magnetism, electromagnetic induction, and electric motors.
Magnets are attracted to each other due to their magnetic fields. Opposite poles (north and south) attract each other, while like poles (north and north, south and south) repel. This attraction is a result of the alignment and interaction of the magnetic domains within the magnets.
Yes, unlike poles in magnets attract each other due to the alignment of their magnetic fields. This attraction is a result of the flow of magnetic field lines from one pole to another, creating a force that pulls the magnets together.
The correct answer is ''Interference"
When two magnets with like poles (either both north or both south) are placed next to each other, they will repel each other. This repulsion occurs because the magnetic fields of the like poles push against each other, creating a force that keeps the magnets apart. As a result, the magnets will tend to move away from one another rather than attract.
Magnets exert magnetic fields, as do electrical currents through wire. These magnetic fields have no impact on water transport through plant tissues, or on any of the minerals plants take up from the soil. Nor would magnets improve the process of photosynthesis. Theoretically, magnets should not have any impact on plant growth. Of course, this would need to be tested, preferably in a double blind experiment to rule out any effect of bias contamination of the results. Three groups of plants--one with magnets, one with non magnetic masses of roughly the same mass and density in place of the magnets, and a third control group with neither magnets or fake magnets should be grown in homogeneous soil, subject to equal measures of sunlight and water. The expected result would be no statistically significant difference in germination rate, plant growth, flower and fruit production, or overall plant longevity.
Depends on what it's made of and how much heat. There's something called the "Curie point", which is different for every material, and above the Curie temperature permanent magnets lose the alignment of magnetic moments that makes them permanent magnets. They may spontaneously realign if cooled, but the magnet will likely be weaker than it was originally. Curie temperatures for common magnets are generally fairly high (at least several hundred degrees).