D7.36 Design the circuit of Fig. 7.54 to obtain a de emitter current of 1 mA, maximum gain, and a ±2-Vsignal swing at the collector, that is, design for Vc=+2.3 V. Let Vcc= 10 V and B = 100.RBVecRcRaVBEVccARclc +18=lgleHEVc = VBE + IBRB(a)(b)Figure 7.54 (a) A common-emitter transistor amplifier biased by a feedback resistor R₁. (b) Analysis of thecircuit in (a). APPENDIX JSTANDARD RESISTANCE VALUESAND UNIT PREFIXESDiscrete resistors are available only in standard values. Table J.1 provides the multipliers forthe standard values of 5%-tolerance and 1%-tolerance resistors. Thus, in the kilohm range of5% resistors, one finds resistances of 1.0, 1.1, 1.2, 1.3, 1.5..... In the same range, one finds1% resistors of kilohm values of 1.00, 1.02, 1.05, 1.07, 1.10......Table J.1 Standard Resistance Values5% Resistor Values (kf?)101112131516182033394347315662758291100-1741001021051071101131151181211241271301331371401431471501541581621651691741% Resistor Values (K2)178-309316-549178182187191196200205210215221226232237243249255261267274280287294301309316324332340348357365374383392402412422432442453464475487499511523536549562-976562576590604619634649665681698715732750768787806825845866887909931953976

Given: VCC=10 VVC=±2VVCE=2.3 Vβ=100 V Find: Design the circuit to obtain an emitter current of 1 mA,…

D7.36 Design the circuit of Fig. 7.54 to obtain a de emitter current of 1 mA, maximum gain, and a ±2 signal swing at the collector; that is, design for V₁=+2.3 V. Let Vcc= 10 V and 3 = 100. Rs Vec Rc Is Ra VIE Vec Re Ic+la = le Ve=Va+laRa (a) (b) Figure 7.54 (a) A common-emitter transistor amplifier biased by a feedback resistor R. (b) Analysis of the circuit in (a).

D7.36 Design the circuit of Fig. 7.54 to obtain a de emitter current of 1 mA, maximum gain, and a ±2 signal swing at the collector; that is, design for V₁=+2.3 V. Let Vcc= 10 V and 3 = 100. Rs Vec Rc Is Ra VIE Vec Re Ic+la = le Ve=Va+laRa (a) (b) Figure 7.54 (a) A common-emitter transistor amplifier biased by a feedback resistor R. (b) Analysis of the circuit in (a).

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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Time-Varying Field

Maxwell's equation in differential form are given as :

Question

D7.36 Design the circuit of Fig. 7.54 to obtain a de emitter current of 1 mA, maximum gain, and a ±2-V
signal swing at the collector, that is, design for Vc=+2.3 V. Let Vcc= 10 V and B = 100.
RB
Vec
Rc
Ra
VBE
Vcc
A
Rc
lc +18=lg
le
HE
Vc = VBE + IBRB
(a)
(b)
Figure 7.54 (a) A common-emitter transistor amplifier biased by a feedback resistor R₁. (b) Analysis of the
circuit in (a).

APPENDIX J
STANDARD RESISTANCE VALUES
AND UNIT PREFIXES
Discrete resistors are available only in standard values. Table J.1 provides the multipliers for
the standard values of 5%-tolerance and 1%-tolerance resistors. Thus, in the kilohm range of
5% resistors, one finds resistances of 1.0, 1.1, 1.2, 1.3, 1.5..... In the same range, one finds
1% resistors of kilohm values of 1.00, 1.02, 1.05, 1.07, 1.10......
Table J.1 Standard Resistance Values
5% Resistor Values (kf?)
10
11
12
13
15
16
18
20
33
39
43
47
31
56
62
75
82
91
100-174
100
102
105
107
110
113
115
118
121
124
127
130
133
137
140
143
147
150
154
158
162
165
169
174
1% Resistor Values (K2)
178-309
316-549
178
182
187
191
196
200
205
210
215
221
226
232
237
243
249
255
261
267
274
280
287
294
301
309
316
324
332
340
348
357
365
374
383
392
402
412
422
432
442
453
464
475
487
499
511
523
536
549
562-976
562
576
590
604
619
634
649
665
681
698
715
732
750
768
787
806
825
845
866
887
909
931
953
976

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