Magnetic poles can not exist and monopoles but must be in pairs where you have a force from one polarity to another. Electric charges, such as plus and minus, can exist alone.
Magnetic poles and electric charges both act the same as in:"opposites attract and same repel."Electric charge is the source of magnetic poles. The Magnetic pole is W=zq where z is the free space impedance 375 Ohms and q is the charge. W units is the Weber or volt-second.
They push or pull when it touches.
Yes, magnetic poles, like electric charges, can attract or repel each other based on their orientation. Similar poles repel each other, while opposite poles attract. This behavior is a common characteristic of both magnetic and electric fields.
Electric force is the force between charged particles, while magnetic force is the force between magnetic poles or moving charges. Electric force acts on stationary charges, while magnetic force acts on moving charges. Both forces are fundamental in nature and play important roles in the interactions of particles and objects.
The forces between charges and magnetic poles both follow an inverse square law, meaning they decrease with distance squared. Additionally, both forces can be either attractive or repulsive, depending on the relative orientations of the charges or poles. Finally, both types of forces are mediated by fields (electric or magnetic fields) that extend through space.
Like poles repel; opposite poles attract. They are similar to electric charges, for they can both attract and repel without touching. ... Electric charges produce electrical forces and regions called magnetic poles produce magnetic forces.
Magnetic poles and electric charges both act the same as in:"opposites attract and same repel."Electric charge is the source of magnetic poles. The Magnetic pole is W=zq where z is the free space impedance 375 Ohms and q is the charge. W units is the Weber or volt-second.
They push or pull when it touches.
Yes, magnetic poles, like electric charges, can attract or repel each other based on their orientation. Similar poles repel each other, while opposite poles attract. This behavior is a common characteristic of both magnetic and electric fields.
Main similarity: Like charges repel each other, different charges attract each other.Main difference: Magnetic "charges" can't be separated. At least, so far it has not been achieved.
Main similarity: Like charges repel each other, different charges attract each other.Main difference: Magnetic "charges" can't be separated. At least, so far it has not been achieved.
Outside the dubious field of magnetic therapists, the terms 'positive' and 'negative' are not applied to magnetic polarities. Furthermore, we do not describe magnetic polarity as a 'charge'. However, magnetic poles and electric charges follow the same rule -i.e. like poles repel while unlike poles attract.
Both magnetic and electric charges interact with each other through attraction or repulsion. However, electric charges are typically carried by protons and electrons, while magnetic charges (or poles) are found in magnetic materials like magnets. Additionally, while electric charges produce electric fields that exert forces on other charges, magnetic charges produce magnetic fields that affect moving charges.
Like magnetic poles (or like electric charges) push away from each other. The same also happens with like color charges of the quarks.
There are two oppositely "charged" poles for both electric and magnetic. For magnetism we call the poles North and South, while for static electricity we call the poles positive and negative. Of course, you can walk away with the electrically charged positive pole, while you can't walk away with the North "charged" pole. There are differences. There is (apparently) no magnetic monopole.
The rule for the interaction between the magnetic poles is similar to the interaction between the electrical charges in terms of the attraction and repulsion. In both cases the unlike poles attract while the like poles repel.
An electric dipole moment is a measure of the separation of positive and negative charges in a system, creating an electric field. A magnetic dipole moment, on the other hand, is a measure of the strength and orientation of a magnetic field created by a current loop or a moving charge. In essence, electric dipole moments deal with electric fields generated by charges, while magnetic dipole moments pertain to magnetic fields generated by moving charges.