전자회로 실험

1장 실험장비 동작원리 및 사용방법 ······································································ 9
2장 연산증폭기를 이용한 반전 증폭기 ································································ 29
3장 연산증폭기를 이용한 비반전 증폭기 ···························································· 49
4장 미분기와 적분기 ···························································································· 59
5장 다이오드 및 제너 다이오드 특성 ··································································· 73
6장 다이오드 응용 회로 ······················································································· 91
7장 다이오드 정류 회로 ····················································································· 103
8장 다이오드 평활 회로 ····················································································· 117
9장 다이오드 정전압 회로 ················································································· 127
10장 트랜지스터 소신호 등가 회로 ····································································· 139
11장 트랜지스터 DC 바이어스 회로 ··································································· 157
12장 트랜지스터 공통 이미터 증폭기 회로 ························································· 173
13장 트랜지스터 공통 컬렉터 증폭기 회로 ························································· 189
부 록
1. 오실로스코프의 데이터 저장 ·································································· 207
2. 오실로스코프에서 측정 ·········································································· 212
3. 오실로스코프에서 커서 사용 ·································································· 219
4. 오실로스코프에서 산술 파형 ·································································· 224
찾아보기 ················································································································ 235

또한 DC 바이어스 회로 설계 시 고려하여야 할 것은, 출력 AC 전압 파형의 진폭이다. DC 바이어스 회로를 통해 동작점이 결정될 경우, 이 점을 기준으로 소신호 AC 출력의 진폭이 결정되게 된다. 이는 주로 부하저항에 의해 결정되며, AC-적 으로 고려될 필요가 있다. 그림 11-3의 회로에서 출력 측에서 KVL을 적용하면 아래와 같이 쓸 수 있을 것이다.