No, greater mass equates to greater surface area and therefore greater electron-charge storage potential.
Electrostatric force on a test charge is stronger when it's closer to another charge. In exactly the same way, mathematically, that the gravitational force on a test mass is stronger when it's closer to another mass. And in exactly the same ratio.
The electrostatic force can be compared to the force of gravity in terms of being a fundamental force affecting the interaction between objects. However, while gravity is responsible for the attraction between all objects with mass, the electrostatic force acts on charged particles like electrons and protons.
The force of gravity on an object is dependent on the object's mass. Objects with more mass experience a greater force of gravity compared to objects with less mass.
Electric force depends on the charge of the objects involved, analogous to mass in gravitational force. The greater the charge of the objects, the stronger the electric force between them.
By using the formula for electrostatic force and equating it to the tension in the string, we can find the charge on each ball. The electrostatic force is given by Coulomb's law, F = k*q^2/r^2, where k is the electrostatic constant, q is the charge, and r is the separation. Equating this force to the tension in the string, we can solve for the charge on each ball.
Electrostatric force on a test charge is stronger when it's closer to another charge. In exactly the same way, mathematically, that the gravitational force on a test mass is stronger when it's closer to another mass. And in exactly the same ratio.
The proton exerts a greater electrostatic force on the electron in a hydrogen atom. This is because the proton has a much larger mass and positive charge compared to the much smaller mass and negative charge of the electron.
Yes. Gravitational force is proportional to the mass of the two objects and inversely proportional to the square of the distance between them. Charge does not enter into the picture.
Even if it is the electrostatic force or gravitational force, I have F=constant*(mass or charge 1)(mass or charge 2)/radius^2. If the distance is tripled, then r is equal to 3. Let us say that mass or charge 1 and mass or charge 2 and the constant is 1. Forgetting the units, F=(1*1*1)/(3^2) which equals F=1/9. Therefore, the force of attraction will be reduced to 1/9 of its original strength if the distance between the two is tripled.
The independent variable is mass. The dependent variable is the frictional force.
The electrostatic force can be compared to the force of gravity in terms of being a fundamental force affecting the interaction between objects. However, while gravity is responsible for the attraction between all objects with mass, the electrostatic force acts on charged particles like electrons and protons.
The force of gravity on an object is dependent on the object's mass. Objects with more mass experience a greater force of gravity compared to objects with less mass.
Electric force depends on the charge of the objects involved, analogous to mass in gravitational force. The greater the charge of the objects, the stronger the electric force between them.
By using the formula for electrostatic force and equating it to the tension in the string, we can find the charge on each ball. The electrostatic force is given by Coulomb's law, F = k*q^2/r^2, where k is the electrostatic constant, q is the charge, and r is the separation. Equating this force to the tension in the string, we can solve for the charge on each ball.
No. Mass, as a quantity, is independent of gravity.
Gravitational forces are based on mass and pull objects towards each other, while electrostatic forces are based on charge and can attract or repel objects based on their charge.
The force of gravity and electrostatic force both pulls things together!!! But gravity acts only on one large mass and another with small mass. Electrostatic is very powerful it can attract as well as repel. The answer is that:- Most powerful :- ELECTROSTATIC Less powerful :- Gravity