Well, darling, to calculate the work done in moving a charge, you use the formula: work = charge x change in voltage. So, for a charge of 3 coulombs and a voltage change of 10 volts, the work done would be 30 joules. Easy peasy lemon squeezy!
1 volt = 1 joule per coulomb 3 joules x 1 coulomb = 3 volts
12 watts or 12 joules of energy.In one second, 1 coulomb is 1 amp, so the power is 1 amp x 12 volts = 12 watts, and in that one second, that is 12 Joules of energy.
When one coulomb of charge (electrons) is lifted through a potential difference of 1 volt, it gains one joule of energy. When one coulomb of charge (like 1 Amp flowing for 1 second) drops through a potential difference of one volt, it loses one joule of energy ... which is used to generate 1 joule of heat and/or light, transmit 1 watt of radio for 1 second, run a 1-watt motor for 1 second, etc.
The physical quantity that has the unit joule per coulomb is electric potential, which is measured in volts. Electric potential is a measure of the electric potential energy per unit charge at a point in an electric field.
By definition a volt is a joule per coulomb, V=W/Q (V is voltage, W is work done or energy measured in joules, Q is charge measured in coulombs) therefore 1 volt is 1 joule per 1 coulomb of charge (1C of charge is a very large amount to expect to see very small numbers for charge)
To calculate the energy expended in moving a charge through a potential difference, you can use the formula: Energy (E) = Charge (Q) × Potential Difference (V) Given: Charge (Q) = 20 Coulombs Potential Difference (V) = 0.5 Volts Plugging in the values: E = 20 C × 0.5 V E = 10 Joules Therefore, the energy expended in moving a 20 Coulomb charge through a potential difference of 0.5 Volts is 10 Joules.
One coulomb of charge is equivalent to 1 volt in an electric circuit. This relationship between charge and voltage is governed by Ohm's Law, which defines the relationship between voltage, current, and resistance in a circuit.
1 volt = 1 joule per coulomb 3 joules x 1 coulomb = 3 volts
Voltage is "electrical pressure", so to speak, or energy per charge. Volts is joules per coulomb.
A joule is a unit of energy. A volt is an electrical unit of voltage (sometimes called electromotive force). 1 joule = (1 Coulomb of electric charge) x (1 volt). A Coulomb of charge is the charge equivalent of 6.242 x 1018 electrons.
it would be 10 joules because all you do is divide 10 joules by 1 coulomb of charge and you get 10 joules or (V) volts
Electrical current is the number of elementary charge units (coulombs) that pass by a given point in one second. Current, measured in amperes, is coulombs per second. Electrical voltage is the "pressure" behind that current. Voltage, measured in volts, is joules per coulomb.
1.5 volts means 1.5 joules/coloumb.
The dimension of electric potential is energy per unit charge, which is equivalent to joules per coulomb or volts. It is a scalar quantity that represents the amount of work needed to move a unit positive charge from a reference point to a specific point in an electric field.
The unit of potential difference in a circuit is the volt.Electrical charge is measured in coulombs (1 coulomb = 6.241x1018 e, electron charges) and a volt is equal to 1 newton per coulomb at a distance of 1 meter.
Current is the flow of electrical charge, measured in amperes. One ampere is defined as one coulomb per second. One coulomb is about 6.24x1018 protons or electrons.A few more terms to crystallize things... Some people confuse current and voltage. They are not the same thing. Current, as stated above is a flow of charge, while voltage is the energy behind that charge, in volts, or joules per coulomb. Power is the rate of work done by the energy, in joules per second or watts, or volts times amperes. Energy, joules, is the integral of the power.
Volts. 12.6 volts = Full Charge 12.4 volts = 75% Charge 12.2 volts = 50% Charge 12.2 volts = 25% Charge