The energy transferred to one coulomb of charge within a battery is called electromotive force (emf).
That depends on the voltage. In general, a coulomb of charge will either gain or lose (depending on the direction) one joule of energy for every volt of potential difference. For example, if the battery has 12 V, a coulomb of charge will gain or lose 12 joules of energy when going from one terminal to the other.
The energy that a battery gives to each coulomb of charge is equal to the voltage of the battery, measured in volts. This energy is used to move the charge through a circuit. The energy that this charge gives to the load is determined by the resistance of the load and the current flowing through it, according to Ohm's Law (E=IR). The relationship between the battery's voltage and the load's resistance and current ultimately determines the efficiency of energy transfer in the circuit.
Coulomb is the unit of electric charge is SI system of units. One coulomb is that charge which when placed from a similar charge in free space at a distance of one meter would repel with a force of 9 x 109 N
Each Coulomb of charge passing through a 6V battery gains 6 Joules of energy. This can be calculated using the formula Energy = Charge x Voltage. So, for every Coulomb of charge passing through a 6V battery, it receives 6 Joules of energy.
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.
That depends on the voltage. In general, a coulomb of charge will either gain or lose (depending on the direction) one joule of energy for every volt of potential difference. For example, if the battery has 12 V, a coulomb of charge will gain or lose 12 joules of energy when going from one terminal to the other.
The energy that a battery gives to each coulomb of charge is equal to the voltage of the battery, measured in volts. This energy is used to move the charge through a circuit. The energy that this charge gives to the load is determined by the resistance of the load and the current flowing through it, according to Ohm's Law (E=IR). The relationship between the battery's voltage and the load's resistance and current ultimately determines the efficiency of energy transfer in the circuit.
The potential difference ('voltage') is equal to the work done per unit charge, i.e. the energy given to each Coulomb of charge. So, a six Volt battery provides six Joules of energy to each Coulomb of charge.
coulomb
A joule/coulomb is represented by the volt. Example: a 9v battery provides 9 joules of energy to every coulomb of charge that passes through it.
Coulomb is the unit of electric charge is SI system of units. One coulomb is that charge which when placed from a similar charge in free space at a distance of one meter would repel with a force of 9 x 109 N
Each Coulomb of charge passing through a 6V battery gains 6 Joules of energy. This can be calculated using the formula Energy = Charge x Voltage. So, for every Coulomb of charge passing through a 6V battery, it receives 6 Joules of energy.
A coulomb, or ampere second, is the SI unit of electric charge. It is equivalent to the combined charge of 6.24 X 1018 protons.
Electricity is the movement of electrons, which carry a negative charge. The quantity of charge is called the Coulomb. In a circuit carrying a current I, this means that a charge of I coulombs is being transferred every second. Electricity can also be static, such as the charge produced on some materials when rubbed, in which case the amount of static electricity held is again measured in coulombs. See Wikipedia entry for Coulomb
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.
A coulomb is equal to 6.24 × 10 (10 is to the power of 18)
One Coulomb is the charge of about 6,241,510,000,000,000,000 electrons, so it looks likea Coulomb would probably be bigger than the charge on one electron.