Amps... i think
Least count of voltmeter is the value of one division on the scale. Formula is: Least count = Range/No. of divisions For example, if a voltmeter can measure from 0 to 40 V, and it has 100 divisions in total on the scale, then its least count is 40/100 = 0.4V
The smallest main scale division in a vernier scale with 50 divisions is 1/50th of the main scale division. This is because each division on the vernier scale corresponds to 1/50th of a main scale division, allowing for more precise measurements to be made.
The least count of an ammeter refers to the smallest change in current that can be measured by the device. It is typically determined by the scale divisions on the display of the ammeter. For example, if an ammeter has a least count of 0.1 A, it means that it can detect changes in current as small as 0.1 ampere.
The least count of an ammeter is the smallest value of current that can be measured by the instrument. It is typically determined by the scale divisions marked on the device and is an important factor in accurately reading and interpreting the measured current values.
To take a main scale reading, identify the whole number on the main scale that is to the left of the zero mark on the vernier scale. Then, identify the vernier scale division that aligns closely with a division on the main scale. Add the main scale reading and the vernier scale reading together to get the final measurement.
what is the value of the smallest division on a ammeter
what is the value of the smallest division on a ammeter
Least count of voltmeter is the value of one division on the scale. Formula is: Least count = Range/No. of divisions For example, if a voltmeter can measure from 0 to 40 V, and it has 100 divisions in total on the scale, then its least count is 40/100 = 0.4V
They can both be the same superficial size and have the same visual appearance as a "meter" but a voltmeter has its scale marked out in volts and an ammeter has its scale marked out in amps.
The smallest main scale division in a vernier scale with 50 divisions is 1/50th of the main scale division. This is because each division on the vernier scale corresponds to 1/50th of a main scale division, allowing for more precise measurements to be made.
The least count of an ammeter refers to the smallest change in current that can be measured by the device. It is typically determined by the scale divisions on the display of the ammeter. For example, if an ammeter has a least count of 0.1 A, it means that it can detect changes in current as small as 0.1 ampere.
Ammeter sensitivity can be determined by a change of scale for the ammeter which would introduce higher or lower resistance values depending on the reading required. A higher sensitivity for lower values of ampacity would require higher resistance in the measuring circuitry. Use Ohm's law to verify.
The least count of an ammeter is the smallest value of current that can be measured by the instrument. It is typically determined by the scale divisions marked on the device and is an important factor in accurately reading and interpreting the measured current values.
To take a main scale reading, identify the whole number on the main scale that is to the left of the zero mark on the vernier scale. Then, identify the vernier scale division that aligns closely with a division on the main scale. Add the main scale reading and the vernier scale reading together to get the final measurement.
The smallest division on the main scale of a micrometer gauge typically corresponds to 0.5 mm or 0.025 inches. This is the precision at which the main scale can be read.
The vernier scale provides a more precise measurement by showing how much the object has moved past a whole number on the main scale. Since 4 divisions of the vernier scale coincide with one less division on the main scale, each division on the vernier scale represents 1/4 of a division on the main scale. In this case, the total reading would be 35 main scale divisions plus 4 divisions on the vernier scale, giving a total of 35.25 divisions on the main scale. To find the radius of the cylinder, you would measure the circumference with a tape measure or string and then divide that measurement by 2π to find the radius.
if we take resistance in parallel with ammeter then the range of ammeter will change.