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Strategic investment of embodied energy during the architectural planning process

机译:建筑规划过程中体现能源的战略投资

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Background and motivation Building industry impacts natural cycles and has potential for optimization. While impairment on nature reached a new dimension already some three centuries ago the building industry started to realize the dependency in the second half of the 20th century. With LCA method all life cycle phases can be monitored and the environmental impact of each can be quantified. The energy consuming and emission generating components in the building context can be distinguished in the groups transport, operation and material. An architect deals with the operational energy and the building substance. With nearly zero (not renewable) energy for operation an ecological building is defined by the building substance. Evaluation of the building substance While the building structure accounts for the highest share of embodied energy and GWP, the facade offers high potential for optimisation. This potential is even higher when considering a long (50-100 years) usage life span; the building structure remains while the (non load-bearing) facade is object to exchange cycles. Findings and their integration into the architectural planning process The city is a depot for resources and we (it involves a variety of professions) need to learn how to organize it. Modularity, light construction, the use of renewable materials and mono materials are also interesting fields which are looked at from a different point of view. They are relevant for all building elements. Although they are not initially invented to reduce the ecological impact of the built environment, they show potential to do so. The facade is the essential parameter for the resource-efficiency of a building as it is exchanged and binds relevant amounts of material. Impact can be made within this element due to its high variation in construction and materialization. The material cycles need to become smaller and the gaps – landfill or downcycling need to be closed. The use of resources will increasingly develop impact on architecture and by that resource efficiency is a successor of energy efficiency.
机译:背景和动机建筑业会影响自然周期,并具有优化的潜力。尽管对自然的损害已经在三个世纪前达到了新的水平,但建筑业在20世纪下半叶才开始意识到这种依赖性。使用LCA方法,可以监控所有生命周期阶段,并可以量化每个阶段的环境影响。建筑环境中产生能量消耗和排放的成分可以分为运输,操作和材料三类。建筑师负责处理操作能量和建筑物质。建筑物质定义了几乎零(不可再生)的运行能源,生态建筑。对建筑物质的评估尽管建筑结构在体现的能量和全球变暖潜能值中所占份额最大,但外墙却具有很大的优化潜力。考虑到较长的使用寿命(50-100年),这种潜力甚至更高。建筑结构保留下来,而(非承重)立面则是交换周期的对象。调查结果及其与建筑规划过程的集成城市是资源的仓库,我们(涉及各种专业)需要学习如何组织它。模块化,轻型结构,可再生材料和单材料的使用也是有趣的领域,它们从不同的角度来看。它们与所有建筑元素有关。尽管最初并不是为了减少建筑环境的生态影响而发明它们,但它们显示出了这样做的潜力。立面是建筑物的资源效率的重要参数,因为它可以交换并绑定相关数量的材料。由于此元素在构造和物化方面的巨大差异,因此可以在其中产生影响。物料循环需要变得更小,填埋场或垃圾回收站之间的差距必须缩小。资源的使用将越来越多地对建筑产生影响,并且资源效率是能源效率的后继者。

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