sure whatever?
The common term for an electrochemical cell in which terminals are connected to electrodes immersed in a solution of electrolytes is a "battery." In a battery, chemical reactions at the electrodes produce an electric current that can be used to power devices.
Energy
Yes
-- A stack of several cells connected in series presents several times the voltage of a single cell. -- The current depends on the 'load' connected between the battery's terminals. But since the current through any load is directly proportional to the voltage across it, several cells in series ... with their increased voltage ... will produce several times as much current as the same load would draw from a single cell.
Voltage across two terminals mean there exists a potential difference, and when the circuit gets closed, due to this potential difference the current flow.
A generator produces an alternating current, still it gives d.c. output because we use slip-rings at the terminals of actual output of generator.
because an ideal current source is assumed to produce a constant current for any voltage and is assumed to have an impedence of infinity (open circuit).
the two terminals are used to produce light energy.
A 120V power supply connected to a 30 Ohm resistor will produce 120/30 or 4 amps of current.
A battery produces electrical energy through a chemical reaction that occurs between its two terminals. This chemical reaction releases electrons, which flow through a circuit, creating a current of electricity.
When the ends of a wire are connected to a battery, the battery does not produce magnetic fields in the wire. Instead, it generates an electric current by creating a potential difference that drives electrons through the wire. While the flow of current can create magnetic fields around the wire, the battery itself does not directly produce these fields; they are a result of the electrical current flowing through the wire.
Current transformers (CTs) are connected in series with a circuit to accurately measure the current flowing through that circuit. By placing the CT in series, it can produce a proportional output current that reflects the primary current, enabling safe and effective monitoring and protection of electrical systems. This configuration allows for easy integration into protective relays and metering devices without interrupting the flow of current in the main circuit.