Question

Pre-laboratory Assignment: Read the previously distributed handout on 'Oscilloscope Fundamentals' and the 'Function Generator Quickguide'. For the circuit shown in Figure 1, calculate and specify the value of the resistor, R, needed for $V_{out}$ to reach 1.26 vdc 100 µs after the switch is closed. For both circuits, if $V_{in}$ is a 4 $V_{pk-pk}$, 1kHz square wave with a 50% duty cycle, sketch (to scale) what you expect $V_{out}$ to look like. Plot both $V_{in}$ and $V_{out}$ on the same graph, i.e., superimpose $V_{out}$ on $V_{in}$. $V_{in}$ + DC R $V_{out}$ $V_{in}$ + DC 0.01 uF $V_{out}$ R Figure 1. Figure 2.

          Pre-laboratory Assignment:
Read the previously distributed handout on 'Oscilloscope Fundamentals' and the 'Function
Generator Quickguide'.
For the circuit shown in Figure 1, calculate and specify the value of the resistor, R, needed for
$V_{out}$ to reach 1.26 vdc 100 µs after the switch is closed.
For both circuits, if $V_{in}$ is a 4 $V_{pk-pk}$, 1kHz square wave with a 50% duty cycle, sketch (to
scale) what you expect $V_{out}$ to look like. Plot both $V_{in}$ and $V_{out}$ on the same graph, i.e.,
superimpose $V_{out}$ on $V_{in}$.
$V_{in}$
+
DC
R
$V_{out}$
$V_{in}$
+
DC
0.01 uF
$V_{out}$
R
Figure 1.
Figure 2.

Pre-laboratory Assignment:
Read the previously distributed handout on 'Oscilloscope Fundamentals' and the 'Function
Generator Quickguide'.
For the circuit shown in Figure 1, calculate and specify the value of the resistor, R, needed for
Vout to reach 1.26 vdc 100 µs after the switch is closed.
For both circuits, if Vin is a 4 Vpk-pk, 1kHz square wave with a 50% duty cycle, sketch (to
scale) what you expect Vout to look like. Plot both Vin and Vout on the same graph, i.e.,
superimpose Vout on Vin.
Vin
+
DC
R
Vout
Vin
+
DC
0.01 uF
Vout
R
Figure 1.
Figure 2.

Added by Sydney B.

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