手机版 English 帮助中心
外文文献知网节
文献信息节点
基本信息 摘要 关键词 核心评价 相关文献
Journal | [J] 建筑施工与发展 Volume 3, Issue 7. 2021.
承重草捆住宅楼：其生命周期影响评估
作者 : 迈克 尔·, 罗扎 莉亚, 约瑟 夫·
DOI: 10.12361/2705-1269-03-07-42
全部来源
获取全文
摘要 / Abstract
作为一种可再生原材料，秸秆捆代表了一种可持续的建筑方式，对环境的影响最小。本文重点研究了承重 草捆住宅建筑的生命周期影响评估。评估中考虑了从原材料提取到制造建筑材料的产品阶段，包括七种草捆。根据 IMPACT 2002 方法评估建筑材料。包括中点和终点影响类别。结果显示了稻草包来源的重要性。粗放型牧场秸秆 对生态系统质量的影响是集约化生产的20倍，因此对建设总分有显着影响。结果显示稻草作为建筑材料的优势，特 别是在当地使用时。此外，还确定了其他建筑材料的重要贡献。
关键词 / Keywords
建筑材料；损害评估；生命周期影响评估；单分；稻草捆
Related articles / 相关文献
相似文献
作者发文
机构发文
关键词分析
相似文献（说明：与本文内容较接近的文献）
  • [1]Haas, G.; Wetterich, F.; Köpke, U. Comparing
  • intensive, extensified and organic grassland farming in
  • southern Germany by process life cycle assessment. Agric.
  • Ecosyst. Environ. 2001, 83, 43–53.
  • [2]Petrovic, B.; Myhren, J.A.; Zhang, X.; Wallhagen, M.;
  • Eriksson, O. Life cycle assessment of a wooden single-family
  • house in Sweden. Appl. Energy 2019, 251, 113253.
  • [3]Mitterpach, J.; Ileckova, R.; Stefko, J. Life cycle impact
  • assessment of construction materials of a wood-based building
  • in an environmental context. Acta Fac. Xylologiae 2018, 60,
  • 147–157.
  • [4]Moschetti, R.; Brattebø, H.; Sparrevik, M. Exploring
  • the pathway from zero-energy to zero-emission building
  • solutions: A case study of a Norwegian office building. Energy
  • Build. 2019, 188–189, 84–97.
  • [5]Takano, A.; Winter, S.; Hughes, M.; Linkosalmi, L.
  • Comparison of life cycle assessment databases: A case study
  • on building assessment. Build. Environ. 2014, 79, 20–30.
  • [6]Finnveden, G.; Hauschild, M.Z.; Ekvall, T.; Guinée,
  • J.; Heijungs, R.; Hellweg, S.; Koehler, A.; Pennington, D.; Suh,
  • S. Recent developments in Life Cycle Assessment. J. Environ.
  • Manag. 2009, 91, 1–21.
  • [7]Koh, C.H.; Kraniotis, D. Hygrothermal performance,
  • energy use and embodied emissions in straw bale buildings.
  • Energy Build. 2021, 245, 111091. Koh, C.H.; Kraniotis,
  • D. Hygrothermal performance, energy use and embodied
  • emissions in straw bale buildings. Energy Build. 2021, 245,
  • 111091.
  • [8]Petkova-Slipets, R.; Zlateva, P. Thermal Insulating
  • Properties of Straw-Filled Environmentally Friendly Building
  • Materials. Civ. Environ. Eng. 2017, 13, 52–57.
  • [9]Costes, J.-P.; Evrard, A.; Biot, B.; Keutgen, G.; Daras,
  • A.; Dubois, S.; Lebeau, F.; Courard, L. Thermal Conductivity of
  • Straw Bales: Full Size Measurements Considering the Direction
  • of the Heat Flow. Buildings 2017, 7, 11.
  • [10]Sabapathy, K.A.; Gedupudi, S. Straw bale based
  • constructions: Measurement of effective thermal transport
  • properties. Constr. Build. Mater. 2019, 198, 182–194.
  • [11]Teslík, J.; Fabian, R.; Hrubá, B. Determination of
  • the Airborne Sound Insulation of a Straw Bale Partition Wall.
  • Civ. Environ. Eng. 2017, 13, 20–29.
  • [12]Cascone, S.; Evola, G.; Gagliano, A.; Sciuto, G.;
  • Parisi, C.B. Laboratory and In-Situ Measurements for Thermal
  • and Acoustic Performance of Straw Bales. Sustainability 2019,
  • 11, 5592.
《中国学术期刊(光盘版)》电子杂志社有限公司 KDN平台基础技术由KBASE 11.0提供
© 2014-2018中国知网(CNKI) 京公网安备11010802020460号 经营性网站备案信息 互联网出版许可证 新出网证(京)字271号 京ICP证040431号