Consider the circuit of Figure P4.30 in which the switch has been closed for a long time prior to t = 0. Determine the values of v C ( t ) before t = 0 and a long time after t = 0. Also, determine the time constant after the switch opens and expressions for v c ( t ) . Sketch v c ( t ) to scale versus time for − 4 ≤ t ≤ 16 s . Figure P4.30
Consider the circuit of Figure P4.30 in which the switch has been closed for a long time prior to t = 0. Determine the values of v C ( t ) before t = 0 and a long time after t = 0. Also, determine the time constant after the switch opens and expressions for v c ( t ) . Sketch v c ( t ) to scale versus time for − 4 ≤ t ≤ 16 s . Figure P4.30
Solution Summary: The diagram shows the voltage across the capacitor v_C(t) before and after t=0, and the time constant for the circuit is 4s
Consider the circuit of Figure P4.30 in which the switch has been closed for a long time prior to t = 0. Determine the values of
v
C
(
t
)
before t = 0 and a long time after t = 0. Also, determine the time constant after the switch opens and expressions for
v
c
(
t
)
. Sketch
v
c
(
t
)
to scale versus time for
−
4
≤
t
≤
16
s
.
O Draw the four possible negative feedback
contigurations of an op-amp. Write the
input and output impedances of these
configurations in ideal cases.
5
E9.6 Determine the average power absorbed by the 4-2 and 3-2 resistors in Fig. E9.6.
302
j20
Figure E9.3
4Ω
ww
Figure E9.6
12/0° V
j30
-j2 N
13/10° A
(+60° V
(OEF
-160
For
the
P-channel
JFET
given in
the following figure,
the
IDSS = 2MA
a)
Determine
IDQ
and
VSDQ
b)
Determine
the
source-follower circuit
transistor parameters are:
Vp = +1,75 V, and λ=0.
Small-signal voltage gain, Av = So
VDD = 10V
R₁ = 90kr
Rs =5k
CC1
WW
R₂ = 110kn
50
C02
BL = 10 kr
GND
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