Analysis of prestressed concrete slab-and-beam structures

被引:0
|
作者
E. J. Sapountzakis
J. T. Katsikadelis
机构
[1] Institute of Structural Analysis and Aseismic Research,
[2] Department of Civil Engineering,undefined
[3] National Technical University of Athens,undefined
[4] Zografou Campus,undefined
[5] GR 15773,undefined
[6] Greece,undefined
来源
Computational Mechanics | 2001年 / 27卷
关键词
Shrinkage; Outer Surface; Shear Force; Axial Force; Continuity Condition;
D O I
暂无
中图分类号
学科分类号
摘要
 In this paper a solution to the problem of prestressed concrete slab-and-beam structures including creep and shrinkage effect is presented. The adopted model takes into account the resulting inplane forces and deformations of the plate as well as the axial forces and deformations of the beam, due to combined response of the system. The analysis consists in isolating the beams from the plate by sections parallel to the lower outer surface of the plate. The forces at the interface, which produce lateral deflection and inplane deformation to the plate and lateral deflection and axial deformation to the beam, are established using continuity conditions at the interface. The influence of creep and shrinkage effect relative with the time of the casting and the time of the loading of the plate and the beams is taken into account. The estimation of the prestressing axial force of the beams is accomplished iteratively. Both instant (e.g. friction, slip of anchorage) and time dependent losses are encountered. The solution of the arising plate and beam problems, which are nonlinearly coupled, is achieved using the analog equation method (AEM). The adopted model, compared with those ignoring the inplane forces and deformations, describes better the actual response of the plate–beams system and permits the evaluation of the shear forces at the interfaces, the knowledge of which is very important in the design of prefabricated ribbed plates.
引用
收藏
页码:492 / 503
页数:11
相关论文
共 50 条
  • [41] Finite Element Analysis of Prestressed Steel Reinforced Concrete Beam
    Wang, Chengquan
    Zhu, Yuefeng
    Shen, Yonggang
    [J]. ADVANCES IN MECHATRONICS AND CONTROL ENGINEERING II, PTS 1-3, 2013, 433-435 : 2302 - +
  • [42] Reliability Analysis of Deflection Control of Prestressed Concrete Crane Beam
    Hu, Yukun
    Yao, Jitao
    Du, Jing
    [J]. 2020 2ND INTERNATIONAL CONFERENCE ON CIVIL ENGINEERING, ENVIRONMENT RESOURCES AND ENERGY MATERIALS, 2021, 634
  • [43] Stress analysis and experimental verification on corroded prestressed concrete beam
    Zhu, EY
    Liu, C
    He, L
    Zhang, HW
    Xie, N
    [J]. ENVIRONMENTAL ECOLOGY AND TECHNOLOGY OF CONCRETE, 2006, 302-303 : 676 - 683
  • [44] CAMBER ANALYSIS AND CONTROL METHODS RESEARCH FOR PRESTRESSED CONCRETE BEAM
    Cao, Yugui
    Wang, Panfeng
    [J]. PROCEEDINGS OF THE TWELFTH INTERNATIONAL SYMPOSIUM ON STRUCTURAL ENGINEERING, VOLS I AND II, 2012, : 366 - 369
  • [45] Performance evaluation of composite prestressed concrete slab bridges
    Peterman, RJ
    Ramirez, JA
    [J]. STRUCTURAL DESIGN ISSUES: BRIDGES, OTHER STRUCTURES, AND HYDRAULICS AND HYDROLOGY, 2000, (1740): : 12 - 18
  • [46] A fiber beam element based on plastic and damage models for prestressed concrete structures
    Parente, Luca
    Addessi, Daniela
    Spacone, Enrico
    [J]. ENGINEERING STRUCTURES, 2023, 292
  • [47] EFFECTS OF BANDED POSTTENSIONING IN PRESTRESSED CONCRETE FLAT SLAB
    ROSCHKE, PN
    INOUE, M
    [J]. JOURNAL OF STRUCTURAL ENGINEERING-ASCE, 1991, 117 (02): : 563 - 583
  • [48] Analysis of interaction of reinforced concrete and prestressed concrete cylindrical silo structures with soil
    Lewinski, P. M.
    [J]. SHELL STRUCTURES: THEORY AND APPLICATIONS, VOL 3, 2014, : 547 - 550
  • [49] Ductility of a partially prestressed concrete beam
    Du, JS
    Chang, XL
    [J]. ENVIRONMENTAL ECOLOGY AND TECHNOLOGY OF CONCRETE, 2006, 302-303 : 720 - 724
  • [50] STANDARD PRESTRESSED CONCRETE BEAM DESIGN
    BOCZKAJ, BK
    [J]. JOURNAL OF THE STRUCTURAL DIVISION-ASCE, 1981, 107 (02): : 446 - 449