Part 3.1. V Measured, Q Variable, C Constant No charge +3q Charge, Q Voltage Potential (2 mm separation) Voltage Potential (4 mm separation) +2g +4q +5q ov +4V +8V +12V +16V +20V ov +8V +16V +24V +32V +40V Question: Why is there linear increase in measured voltage with increasing charge? (explain by use of mathematical relation between Q, C, and V) Electrometer To AC power adapter Electrostatics Voltage Source Question: Why do we measure higher voltages when increasing the plate separation for a particular amount of charge? (explain by use of capacitance formula for a parallel plate capacitor)

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Part 3.1. V Measured, Q Variable, C Constant
No charge
+3q
Charge, Q
Voltage Potential
(2 mm separation)
Voltage Potential
(4 mm separation)
+2g
+4q
+5q
ov
+4V
+8V
+12V
+16V
+20V
ov
+8V
+16V +24V
+32V
+40V
Question:
Why is there linear increase in measured
voltage with increasing charge? (explain by
use of mathematical relation between Q, C,
and V)
Electrometer
To AC power
adapter
Electrostatics
Voltage
Source
Question:
Why do we measure higher voltages when increasing the plate separation for a particular
amount of charge? (explain by use of capacitance formula for a parallel plate capacitor)
Transcribed Image Text:Part 3.1. V Measured, Q Variable, C Constant No charge +3q Charge, Q Voltage Potential (2 mm separation) Voltage Potential (4 mm separation) +2g +4q +5q ov +4V +8V +12V +16V +20V ov +8V +16V +24V +32V +40V Question: Why is there linear increase in measured voltage with increasing charge? (explain by use of mathematical relation between Q, C, and V) Electrometer To AC power adapter Electrostatics Voltage Source Question: Why do we measure higher voltages when increasing the plate separation for a particular amount of charge? (explain by use of capacitance formula for a parallel plate capacitor)
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