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Monitoring and Optimization of Building Operations of a Low-Energy School Building

机译:低能耗教学楼的楼宇运行监控和优化

摘要

The ambitious design and energy concept of the new Gebhard-M?ller-Schule (GMS) school building in Biberach/Riss, Germany proved itself during the first three school years of operation. The intended target value of 30 kWh/(m2a) overall heating energy consumption was almost met during the second year of operation in 2006 and finally achieved in 2007, due to well-working optimization measures, which were identified through monitoring of the building operation. Heating and cooling energy is mainly provided by a groundwater well plant, which serves as a heat source for two heat pumps as well as a direct cooling source for supplying the radiant heating and cooling system that is integrated in the concrete floor and ceiling slabs (thermally activated building component systems ? TABS). Indoor air conditioning and server room cooling are also connected to the groundwater cooling system. The main component of the groundwater well plant is a submersible pump on the bottom of the well which is located underneath the building. The pump supplies the building reliably with geothermal energy, but also consumes a significant amount of electricity. Monitoring and optimization of the building?s operation, funded by the Federal Ministry of Economics and Technology in Germany, revealed fundamental findings about the operation of the system and the possibilities to improve the building?s performance. Since 2005, the measurements show a continuous increase in efficiency, particularly in the field of auxiliary energies. This significantly increased performance clearly shows the potential of the use of groundwater for heating and cooling purposes and of thermally activated building component systems. In addition the measurements reveal the sensitivity of the system efficiency in terms of operating parameters.
机译:位于德国比伯拉赫/里斯的新格布哈德·米勒·舒勒(GMS)学校建筑的雄心勃勃的设计和节能理念在运营的前三个学年就得到了证明。由于良好的工作优化措施(通过对建筑物运行的监控来确定),在2006年运营的第二年几乎达到了预期的30 kWh /(m2a)总体供暖能耗的目标值。加热和冷却能量主要由地下水井工厂提供,该工厂用作两个热泵的热源以及直接冷却源,用于提供集成在混凝土楼板和天花板中的辐射加热和冷却系统(热激活的建筑构件系统?TABS)。室内空调和服务器机房冷却系统也连接到地下水冷却系统。地下水井设备的主要组成部分是位于建筑物下方的井底的潜水泵。泵可靠地为建筑物提供地热能,但也会消耗大量电能。由德国联邦经济技术部资助的对建筑物运行的监视和优化,揭示了有关系统运行的基本发现以及改善建筑物性能的可能性。自2005年以来,这些测量表明效率不断提高,特别是在辅助能源领域。性能的显着提高清楚地表明了将地下水用于加热和冷却目的以及热活化建筑构件系统的潜力。此外,这些测量结果还揭示了系统效率在运行参数方面的敏感性。

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