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There is an increasing need for ensuring high energy savings throughout the building lifecycle, from the early design phases until post occupancy. Utility (services) and firmness (robustness) are principles of good design since Vitruvius, but sustainability was added as a new principle after 1980s, for a distinct understanding, evaluation and action development on energy consumption and environmental impact of buildings. Today, we are able to measure the consumption levels and environmental impact of our buildings, manage their indoor comfort, and combine this further with our personal desires.Sustainability means decreasing waste and pollution, the demand for physical resources (energy, material…) and the impact on climate change, while maintaining the indoor comfort and health conditions in a building. Design decisions for sustainability include that of land use, microclimate management, form, spatial organization, building envelope, and managing water, waste, and energy systems. The essence of sustainability lies in designing all these factors with a holistic approach, while making sure that the building is usable for the occupant. Energy efficient housing requires less energy and uses renewable energy resources in the most efficient way for the energy needed during occupancy. Kim and Rigdon (1998) define the three basic principles of sustainable design as efficient use of resources (reduce, reuse, recycle); assessment of resource consumption during construction and use; and human centered design (the interaction between the human being and the environment). This research addresses the latter, the human aspect.The buildings’ energy consumption estimated by simulation software can be validated in total, only during occupancy, when the design is tested on actual use. For residential buildings, we know that sometimes the actual energy use levels are different than the expected/calculated (Lutzenheiser, 1992; Jeeninga et al., 2001; Guerra Santin, 2010; Majcen, 2013). A couple of reasons to this can be calculation drawbacks, incorrect construction applications and unexpected occupant behavior. Therefore, better understanding of the relationship between occupant behavior and energy consumption can enable more efficient design and operation of (residential) buildings, which are more suitable to the occupants’ use considering thermal, acoustical, visual, environmental comfort, health and safety.Policy on energy efficiency in buildings focuses mostly on building characteristics and mechanical systems like heating and ventilation. Although there is strong evidence for the influence of occupant behavior on energy consumption, the effort made to gainnbsp;more insight to this relationship stayed behind for a long time. This study addresses the influence of occupant behavior on energy consumption for heating and electricity use for appliances and lighting, in residential buildings.This research is conducted as a joint effort at Delft University of Technology, Faculty of Architecture, between the chair of Design Informatics; research program Computation and Performance, and the chair of Housing Quality and Process Innovation (HQPI). Chair Design Informatics, research program Computation and Performance aims to improve the performance of buildings by using computational methods for model generation and analysis, decision-making and design communication, in an interdisciplinary context. This research could contribute to the further development of computational model(s) and tools in support of user’s decision-making processes. Furthermore, one of the research goals of chair HQIP is to understand the influence of occupant behavior to energy consumption in dwellings. The PhD research of Guerra Santin (2010) and Majcen (2016) of the chair HQIP specifically focus on occupant behavior and energy consumption. This research is built partially on the same datasets as Guerra Santin (‘OTB dataset’ and ‘WoON survey’), with different research questions. Findings of Guerra Santin and Majcen’s research are referred to, in the relevant sections of this thesis. Most of the research conducted under the title of this PhD was published between 2009 and 2013.
机译:越来越需要确保整个建筑物生命周期的高能量节省,从早期设计阶段,直到占用率。效用(服务)和坚固性(鲁棒性)是Vitruvius以来良好设计的原则,但在20世纪80年代之后,可持续性被添加为新的原则,为建筑物的能耗和环境影响的不同理解,评估和行动发展。今天,我们能够衡量建筑物的消费水平和环境影响,管理他们的室内舒适度,并通过我们的个人欲望进一步结合。普遍意味着减少浪费和污染,物质资源的需求(能源,材料......)和对气候变化的影响,同时保持建筑物的室内舒适和健康状况。可持续发展的设计决策包括土地利用,小气候管理,形式,空间组织,建筑信封和管理水,废物和能源系统。可持续性的本质在于设计具有整体方法的所有这些因素,同时确保建筑物可用于占用者。节能外壳需要更少的能源,并以最有效的方式使用可再生能源来占用期间所需的能量。 Kim和Rigdon(1998)为有效使用资源(减少,重用,回收)定义可持续设计的三个基本原则;在建造和使用过程中评估资源消耗;和人类的设计(人类与环境之间的互动)。这项研究解决了后者,人类方面。通过仿真软件估计的建筑物的能耗可以在实际使用时占用时,只能在占用期间验证。对于住宅建筑,我们知道有时实际的能源使用水平与预期/计算的不同(Lutzenheiser,1992; Jeeninga等,2001; Guerra Santin,2010; Majcen,2013)。这可能是计算缺点,施工应用不正确和意外的占用行为的几个原因。因此,更好地了解乘员行为和能源消耗之间的关系,可以实现(住宅)建筑物的更有效的设计和操作,这些建筑物更适合考虑热敏,声学,视觉,环境舒适,健康和安全的乘员使用.Policy关于建筑物的能效主要侧重于建筑物的特点和机械系统,如加热和通风。虽然存在有力证据占用行为对能源消耗的影响,但努力为GainnBSP做出的努力;对这种关系的洞察力很长一段时间。本研究解决了居住建筑物的供暖和照明供电和照明的能量消耗对供电和照明的能量消耗的影响。本研究是在设计信息学主席之间作为Delft理工大学的联合努力。研究计划计算和性能,以及住房质量和流程创新的主席(HQPI)。椅子设计信息学,研究计划计算和性能旨在通过利用模型生成和分析,决策和设计通信的计算方法来提高建筑物的性能。该研究可以有助于进一步发展计算模型和支持用户决策过程的工具。此外,HQIP椅子的研究目标之一是了解乘员行为对住宅能源消耗的影响。 Guerra Santin(2010)和Majcen(2016年)的博士学位研究,HQIP专门关注占用行为和能源消耗。这项研究部分地建造在与Guerra Santin('OTB DataSet'和'Woon Survey')的同一数据集上,具有不同的研究问题。在本论文的相关部分,引入了Guerra Santin和Majcen的研究结果。根据本博士标题进行的大部分研究发表于2009年至2013年。

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