A Design Software for Plastic-Covered, Pipe-Framed Greenhouses

被引:0
|
作者
Kizil, U. [1 ]
Genc, L. [2 ]
Sacan, M. [2 ]
机构
[1] Canakkale Onsekiz Mart Univ, Biga Meslek Yuksek Okulu, Tekn Programlar Bolumu, Canakkale, Turkey
[2] Canakkale Onsekiz Mart Univ, Ziraat Fak, Tarimsal Yapilar & Sulama Bolumu, Canakkale, Turkey
关键词
Greenhouse design; pipe frame; statical design;
D O I
暂无
中图分类号
S [农业科学];
学科分类号
09 ;
摘要
Greenhouses in Turkey are generally light frame structures that are mainly subject to wind and snow loads. Currently, there is no standard design procedure for pipe-framed greenhouse structures. The greenhouse contractors are usually pipe producers or plumbers who don't apply engineering calculations. They basically build the greenhouses based on their experiences. However, pipe-framed greenhouse building design procedures do include the calculation of forces such as dead, wind, and snow, moments, reaction forces, etc. There has been a need for a user-friendly design tool that can minimize the failure of pipe-framed greenhouse structures. A software program is developed using MS Visual Basic programming language. The program employs Kleinlogel equations in the calculations of moments and reaction forces. The simplicity of building pipe-framed system and Kleinlogel equations provide a unique opportunity to develop a simple program. This study gives a detailed explanation of the methods and the software.
引用
收藏
页码:147 / 153
页数:7
相关论文
共 50 条
  • [1] Numerical analysis of static and dynamic characteristics of large-span pipe-framed plastic greenhouses
    Wang, Cong
    Xu, Zhanyang
    Jiang, Yingchun
    Wang, Tieliang
    BIOSYSTEMS ENGINEERING, 2023, 232 : 67 - 80
  • [2] COLLAPSE PROCESS OF PIPE-FRAMED GREENHOUSES UNDER STATIC WIND LOADING
    Takahashi, Kazuya
    Takadate, Yuki
    Uematsu, Yasushi
    Fundamental Research in Structural Engineering: Retrospective and Prospective, Vols 1 and 2, 2016, : 815 - 820
  • [3] INFLUENCE OF RIDGE HEIGHT OF PIPE-FRAMED GREENHOUSES ON WIND PRESSURE COEFFICIENTS
    Moriyama, H.
    Sase, S.
    Uematsu, Y.
    Ishii, M.
    Okushima, L.
    TRANSACTIONS OF THE ASABE, 2015, 58 (03) : 763 - 769
  • [4] Advances in methodologies to assess wind actions in plastic-covered greenhouses
    Soriano, Julio
    Gigli Shiguemoto, Ana Carolina
    Vieira Neto, Jose Gabriel
    SCIENTIA AGRICOLA, 2024, 81
  • [5] STUDY OF SOLAR-ENERGY PARAMETERS IN PLASTIC-COVERED GREENHOUSES
    MAGHSOOD, J
    JOURNAL OF AGRICULTURAL ENGINEERING RESEARCH, 1976, 21 (03): : 305 - 312
  • [6] Semantic segmentation for plastic-covered greenhouses and plastic-mulched farmlands from VHR imagery
    Niu, Bowen
    Feng, Quanlong
    Su, Shuai
    Yang, Zhi
    Zhang, Sihang
    Liu, Shaotong
    Wang, Jiudong
    Yang, Jianyu
    Gong, Jianhua
    INTERNATIONAL JOURNAL OF DIGITAL EARTH, 2023, 16 (02) : 4553 - 4572
  • [7] Structural analysis of pipe-framed greenhouses using interface elements for cross-over connections
    Lee, Jae Young
    Ryu, Hee Ryong
    ENGINEERING STRUCTURES, 2022, 266
  • [8] Plastic-covered conduit
    不详
    REVIEW OF SCIENTIFIC INSTRUMENTS, 1942, 13 (12): : 541 - 541
  • [9] The Design and Management of Moveable Pipe-Frame, Plastic-Covered Greenhouses for Year-Round Organic Vegetable Production without Supplementary Heating
    Coleman, E. W.
    II INTERNATIONAL SYMPOSIUM ON ORGANIC GREENHOUSE HORTICULTURE, 2014, 1041 : 311 - 314
  • [10] Remote sensing of plastic-covered greenhouses and plastic-mulched farmlands: Current trends and future perspectives
    Veettil, Bijeesh Kozhikkodan
    Van, Dong Doan
    Quang, Ngo Xuan
    Hoai, Pham Ngoc
    LAND DEGRADATION & DEVELOPMENT, 2023, 34 (03) : 591 - 609