No way of telling. to get amps you have to have a current flow, which you get when you connect a consumer to an outlet. Then the consumer will pull amps according to its wattage rating (Watts / Volts = amps) - assuming it's all hooked to a fuse with enough rating.
120 Joules per Coulomb
120 Joules
In SI, the 'volt' is a special name given to a joule per coulomb.
In SI, the coulomb is a special name given to an ampere second, in much the same way that a watt is a special name for a joule per second.
The relationship between resistance and capacitance in a clc circuit is the capacitive reactance given by XC.
It may work in several different ways, depending on the actual circuit used. As asked no better answer can be given than the circuit board alternately turns the current in the LED on and off.
To protect the wiring from overheating and catching on fire.AnswerThe term, 'switchgear', describes a variety of switching devices including circuit breakers and isolators (disconnects).A circuit breaker is an overcurrent protection device. Overcurrents are overload currents (due to too much load for a given circuit) or short-circuit currents (due to electrical faults).
119 joules per coulombCharges don't get joules as they flow through a circuit. They lose them.Every coulomb of charge that flows through a circuit ... from one terminal of a119-volt power supply, around the circuit, and back to the other terminal ...loses 119 joules during the trip.
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.
1.5 volts means 1.5 joules/coloumb.
<p><p> Voltage = 6 V Charge = 1 C Current * Time = Charge V * t = Q Energy = Current * Voltage * Time E = VIt E = Q * V E = 1 C * 6 V E = 6 Joules Therefore energy given to each coulomb of chare passing through 6 V battery is 6 Joules . Cheers !
Current is the amount of electrical charge that flows past a given point in a given time. Current is measured in Amperes, which is Coulombs per Second. Sometimes, erroneously, we use the term current to refer to voltage or power. Voltage is Joules per Coulomb. Power is Joules per Second, or Voltage times Current.
'Voltage' is synonymous with, that is, another name for 'potential difference'. When a potential difference is applied across the ends of a conductor, a current will pass along that conductor.Potential difference is a measure of the energy (measured in joules) required to transport electrical charges (measured in coulombs) between two points along a conductor, and is expressed in joules per coulomb which, in the SI system, is given a special name, the volt (symbol: V), named in honour of an Italian physicist, Count Allesandro Volta. So, voltage or potential difference is measured in volts.
Current is the amount of electrical charge that flows past a given point in a given time.Current is measured in Amperes, which is Coulombs per Second. Sometimes, erroneously, we use the term current to refer to voltage or power. Voltage is Joules per Coulomb. Power is Joules per Second, or Voltage times Current.
In SI, the 'volt' is a special name given to a joule per coulomb.
The ampere is one of seven SI base units, and is defined in terms of the force it produces between two, parallel, current-carrying conductors. It is incorrect to say that an ampere is 'defined' as a coulomb per second, although it is certainly 'equivalent' to a coulomb per second.The coulomb is a SI derived unit, and is defined in terms of the ampere and the second. In fact, it is a special name given to an ampere second.
The electric potential energy of given configuration of charges is defined as the work which must be done against the Coulomb force to rearrange charges from infinite separation to this configuration (or the work done by the Coulomb force separating the charges from this configuration to infinity). For two point-like charges Q1 and Q2 at a distance r this work, and hence electric potential energy is equal to: E_mathrm{p,e} = frac{1}{{4piepsilon_0}}{{Q_1Q_2}over{r}} ============================================ Yes, yes, undoubtedly correct. But what is an electrostatic force ? Atraction between two opposite forces
The electric potential energy of given configuration of charges is defined as the work which must be done against the Coulomb force to rearrange charges from infinite separation to this configuration (or the work done by the Coulomb force separating the charges from this configuration to infinity). For two point-like charges Q1 and Q2 at a distance r this work, and hence electric potential energy is equal to: E_mathrm{p,e} = frac{1}{{4piepsilon_0}}{{Q_1Q_2}over{r}} ============================================ Yes, yes, undoubtedly correct. But what is an electrostatic force ? Atraction between two opposite forces
Amps are coulombs per second, and there is no information on rates given here.