e- 2 sin (ot Figure 3 RL low-pass filter L=2.4 mH R=75 ohms ||| Vout 4. Write the transfer function (both magnitude and phase angle) of the RL low-pass filter of Figure 3 above in terms of joo (or s)

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e- 2 sin (ot
Figure 3 RL low-pass filter
Oc (calculated)
fc (calculated)
L=2.4 mH
R=75 ohms
Vout
4. Write the transfer function (both magnitude and phase angle) of the RL low-pass filter of Figure 3
above in terms of joo (or s)
5. Determine and record below the cutoff frequencies of the circuit of Figure 3.
radians / sec
hertz
6. Sketch the straight-line approximations of the frequency responses for the RL low-pass filter on
Graph 2 (see later).
Transcribed Image Text:e- 2 sin (ot Figure 3 RL low-pass filter Oc (calculated) fc (calculated) L=2.4 mH R=75 ohms Vout 4. Write the transfer function (both magnitude and phase angle) of the RL low-pass filter of Figure 3 above in terms of joo (or s) 5. Determine and record below the cutoff frequencies of the circuit of Figure 3. radians / sec hertz 6. Sketch the straight-line approximations of the frequency responses for the RL low-pass filter on Graph 2 (see later).
The cutoff frequencies for a RC low-pass filter are given as follows:
1
and fc
2+RC
00 =
1
T
1
RC
Transfer function =
V
out
00₂
2 π
For an RL low-pass filter, the cutoff frequencies are:
Frequency response of a filter circuit is given by two graphs:
● Voltage gain in dB versus frequency
Phase shift versus frequency.
Voltage gain and phase shift for any frequency are determined by finding the transfer function of the
circuit. Transfer function is the ratio of output voltage phasor to the input voltage phasor.
111
1 R
L
=
and fe
T
R
Σπ 2πL
Determine the magnitude and the phase angle of the Transfer function as functions of jo. Later you
will see that transfer function are written in terms of s. For the time being consider s= jo.
Transcribed Image Text:The cutoff frequencies for a RC low-pass filter are given as follows: 1 and fc 2+RC 00 = 1 T 1 RC Transfer function = V out 00₂ 2 π For an RL low-pass filter, the cutoff frequencies are: Frequency response of a filter circuit is given by two graphs: ● Voltage gain in dB versus frequency Phase shift versus frequency. Voltage gain and phase shift for any frequency are determined by finding the transfer function of the circuit. Transfer function is the ratio of output voltage phasor to the input voltage phasor. 111 1 R L = and fe T R Σπ 2πL Determine the magnitude and the phase angle of the Transfer function as functions of jo. Later you will see that transfer function are written in terms of s. For the time being consider s= jo.
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