No, even though these are parallel circuits, the voltage drop across each device is not the same in house hold circuits, or anywhere, for that matter. Different devices pull different currents. A toaster, for instance, pulls many times what a light bulb pulls. Since wires do not have truly zero resistance, those differing currents result in different voltage drops across the wires that lead to the devices. That small voltage drop in the wires results in a different voltage drop across each device, even though the device/wire is connected to the same voltage source.
For an electrical device, such as a lamp for example, to operate at its rated power, it must be supplied with its rated voltage. If several such devices are to be connected to the same circuit, the only way to achieve this requirement is to connect the devices in parallel (because the same voltage appears across each branch of a parallel circuit). Furthermore, with parallel connections, if one device should fail (or simply get switched off), all the other devices will continue to operate normally. These are the two reasons why most practical circuits are parallel circuits.Series circuits are less common but can be used for some lighting circuits (e.g. Christmas decorations) in which case the supply voltage is distributed equally across each of the lamps, which then have appropriately-rated voltages. For example, you may have twenty-four, 10-V lamps, connected in series across a 240-V supply.
If the intrinsic standoff ratio (η) of a Unijunction Transistor (UJT) is doubled, it will alter the operating characteristics of the device. Specifically, a higher η indicates a greater proportion of the total voltage across the device that can be used for triggering the UJT. This will result in a wider range of trigger voltages and may affect the stability and sensitivity of the device in applications such as oscillators or timing circuits. Overall, the performance and response characteristics of the UJT will change, potentially allowing for different operational behavior in electronic circuits.
A CT allows:heavy currents to be measured using conventional ammeters, andelectrically-isolates the ammeters from high-voltage primary circuits.
FET is abbreviation of Field Effect Transistor. This is a transistor in which current is controlled by voltage only and no current is drawn. It is a high input impedence device and is used in computers, telecommunication and control circuits. This transistor is better in certain parameters as compared to BJT, that is Bipolar Junction Transistor.
it is not a passive device .y because it is used to amplify the voltage and current .so as according to the definition of active device is the device which is used to amplify the current r voltage .hence transistor is a active device.
Line voltage is understood as the voltage that the device or appliance needs to operate on. It is also referred to as the devices working voltage. Once the proper line voltage or working voltage is applied to the device it may be transformed to different voltages for different internal component circuits.
The voltage across a DC device that draws 2A and consumes 12Wh/h is 12/2 or six volts.
A thyristor if conducting will have a very small voltage drop across if not then the rail voltage will be evident across the device
you calculate a voltage circuit by taking it apart and findng the circuit and calculate the voltage and then resible it.
Pin used to eliminate the effect of internal component voltage on the output of the device.
The zener diode is neither a voltage amplifier nor a current limiting device but can be used in oscillator circuits to supply a constant output voltage.
No. Transformer essentially can step up or step down voltage or provide same voltage across the secondary side. It can not generate voltage on its own. Generator is essentially a rotating device. Transformer is a static device.
Voltage in electrical circuits is measured using a device called a voltmeter. The voltmeter is connected in parallel to the component or circuit being measured, and it provides a numerical value in volts that represents the electrical potential difference between two points in the circuit.
For an electrical device, such as a lamp for example, to operate at its rated power, it must be supplied with its rated voltage. If several such devices are to be connected to the same circuit, the only way to achieve this requirement is to connect the devices in parallel (because the same voltage appears across each branch of a parallel circuit). Furthermore, with parallel connections, if one device should fail (or simply get switched off), all the other devices will continue to operate normally. These are the two reasons why most practical circuits are parallel circuits.Series circuits are less common but can be used for some lighting circuits (e.g. Christmas decorations) in which case the supply voltage is distributed equally across each of the lamps, which then have appropriately-rated voltages. For example, you may have twenty-four, 10-V lamps, connected in series across a 240-V supply.
membrane voltage gated ion channels open and close with changes in the membrane potential
If the intrinsic standoff ratio (η) of a Unijunction Transistor (UJT) is doubled, it will alter the operating characteristics of the device. Specifically, a higher η indicates a greater proportion of the total voltage across the device that can be used for triggering the UJT. This will result in a wider range of trigger voltages and may affect the stability and sensitivity of the device in applications such as oscillators or timing circuits. Overall, the performance and response characteristics of the UJT will change, potentially allowing for different operational behavior in electronic circuits.
Of what ? ! ? It's typically a few volts DC for a battery, 120 volts AC for a household outlet in North America, either zero or 5 volts DC at the output of a TTL logic device, and anything at all for various kinds of oscillators, drivers, or power supplies.