The very definition of dipole is that two equal oppositely charges separated by a very very small distance. Hence + and - would cancel and hence neutral
Neutral objects near charged objects will either be attracted or repelled depending on the charge of the nearby object. If the charged object is positive, neutral objects will be attracted towards it; if it is negative, neutral objects will be repelled. This is due to the redistribution of charges in the neutral object when it interacts with the charged object.
The negatively charged object will attract electrons in the neutral conductor towards it, causing the electrons to redistribute within the conductor. This redistribution will result in the end of the conductor closest to the negatively charged object becoming slightly negatively charged, while the end farthest from it becomes slightly positively charged. This induces a temporary dipole moment in the neutral conductor.
The dipole moment of a drug molecule is a measure of its overall polarity, determined by the distribution of its electric charge. A molecule with a higher dipole moment will have a larger separation between its positive and negative charges, making it more likely to interact with polar molecules or ions in its environment. This can influence its solubility, binding interactions, and biological activity within the body.
Yes, NF3 can experience dipole-dipole attractions because it is a polar molecule. The molecule has a net dipole moment due to the unequal sharing of electrons between nitrogen and fluorine atoms, leading to partial positive and negative charges that can interact with each other through dipole-dipole forces.
-- They can if the gravitational force of attraction is greater than the electrostatic force of repulsion between them. -- They also can if they're connected by a rubber band that has been stretched. -- But if the only force between them is the electrostatic force due to their charges, then they must always repel, because their charges have the same sign.
If charge can flow within the neutral particle and you place it near a charged object, like charges tend to move toward the object and opposite charges move away. This splitting of the charge gives the neutral dust particle an electric dipole moment.
Neutral objects near charged objects will either be attracted or repelled depending on the charge of the nearby object. If the charged object is positive, neutral objects will be attracted towards it; if it is negative, neutral objects will be repelled. This is due to the redistribution of charges in the neutral object when it interacts with the charged object.
No. It can exert a much weaker force on neutral objects, due to an induced separation of charges - that is, the charged object will cause a separation of charges in the uncharged object, thus creating an electric dipole.
No. The attraction is stronger when both are charged. But a charged object may induce an electric dipole (i.e., a separation of charges) in a nearby neutral conductor, resulting in an attraction.
The net charge of a dipole is zero because it consists of two equal and opposite charges separated by a distance. This creates a neutral overall charge.
Some neutral objects have a weak dipole force where electron distribution is random across the whole object, and at any one given time, one side may be slightly more positive than the other. This attraction is very weak but it happens frequently especially in solutions.
In that case, the fact that the charges are rearranged - there is an electric dipole - can cause the charged object and the object with the zero net charge (but with an electric dipole) to attract one another.
The attraction between polar molecules is produced by dipole-dipole interactions. These interactions occur due to the alignment of partial positive and negative charges in polar molecules, leading to an attraction between the opposite charges.
Two opposite electric charges separated by a short distance are called an electric dipole.
The negatively charged object will attract electrons in the neutral conductor towards it, causing the electrons to redistribute within the conductor. This redistribution will result in the end of the conductor closest to the negatively charged object becoming slightly negatively charged, while the end farthest from it becomes slightly positively charged. This induces a temporary dipole moment in the neutral conductor.
Dipole molecules, those having a negatively charged pole and a positively charged pole, if they are in a liquid medium such as an aqueous solution, will orient themselves according to Coulomb's Law, with negative poles close to positive poles and distant from other negative poles.
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.