Earticle

다운로드

송전철탑 사재의 상대 세장비 및 축력이 단부구속에 미치는 영향에 관한 연구
A study on the effect of relative slenderness ratio and axial force of brace member on the end restraint in electric transmission tower

  • 간행물
    대한건축학회지회연합회 학술발표대회논문집 바로가기
  • 권호(발행년)
    2007년도 추계학술발표대회 (2007.12) 바로가기
  • 페이지
    pp.478-485
  • 저자
    김우범, 안진규, 전범준
  • 언어
    한국어(KOR)
  • URL
    https://www.earticle.net/Article/A89434

원문정보

초록

영어
Current design practice of electric transmission tower is based on allowable stress design. But, it is difficult to find the reason for collapse of the transmission tower by the above design approach since the collapse occurred by secondary large deformations based on material and geometrical nonlinear behavior. The influence factor for the nonlinear behavior is mainly residual stress, initial imperfection and end restraints on members. In past study, necessity of the nonlinear analysis is examined through the comparison between elastic analysis and inelastic analysis. In this study, to reduce the complexity caused by the nonlinear analysis, a new
analytical method (equivalent nonlinear analysis technic) is proposed. To confirm the reliability of the proposed, the computed ultimate load of transmission tower using the method was compared with that of the nonlinear finite method. Also, electric transmission tower experienced actual collapse in the past was analyzed by the proposed method and the cause of collapse was
examined. Finally, the result of this study will be utilized in order to apply LRFD design approach to electric transmission tower design specification.

목차

Abstract
 1. 서론
 2. 개발 기법의 내용 및 결과
  2.1 등가 비선형 해석기법 (ENAT)(Equivalent Nonlinear Analysis Technic)
  2.2 제안기법 ENAT의 검증
  2.3 ENAT의 적용
 3. 결론
 참고문헌

저자

  • 김우범 [ Kim, Woo Bum | 정회원, 공주대학교 건축공학과 교수, 공학박사 ]
  • 안진규 [ Ahn, Jin Kyu | 학생회원, 공주대학교 건축공학과 석사과정 ]
  • 전범준 [ Jeon, Bum jun | 학생회원, 공주대학교 건축공학과 학사과정 ]

참고문헌

자료제공 : 네이버학술정보

    간행물 정보

    • 간행물
      대한건축학회지회연합회 학술발표대회논문집
    • 간기
      부정기
    • 수록기간
      2005~2013
    • 십진분류
      KDC 540 DDC 690