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Low-energy LED lighting heat gain distribution in buildings, part II: LED luminaire selection and test results

机译:低能量LED照明热量增益分布在建筑物中,第二部分:LED灯具选择和测试结果

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Lighting heat gains are a significant contributor to space cooling load in buildings and it is important to determine the lighting heat gain distributionspecifically, the fraction of convective and radiative heat gains, as well as the fraction of conditioned space and plenum space heat gains. Traditional lighting's heat gain distribution has been determined and the data are available on the ASHRAE Handbook. However, there is a lack of relevant data for the light-emitting diodes lighting heat gain. As the light-emitting diodes technology and application are rapidly growing, the need to identify light-emitting diodes lighting heat gain becomes highly demanded. In this project (ASHRAE RP-1681), 14 commercially available light-emitting diodes lighting luminaries' heat gain distributions were determined through systematically designed experiments. The split between the convective heat gain and the radiative heat gain, and the split between the conditioned space heat gain and ceiling plenum heat gain were determined for these luminaries. A companion article describes the test approach and pilot test results. This article introduces luminaires selection and analyses the formal test results.
机译:照明热量增益是建筑物中空间冷却负荷的重要因素,重要的是要确定光线热量分布,对流和辐射热量的分数,以及条件空间和增压室空间热量的分数。已经确定了传统的照明的热增益分布,并在Ashrae手册上提供数据。然而,发光二极管照明热量增益缺乏相关数据。随着发光二极管技术和应用正在快速增长,需要识别发光二极管照明热量的热量增长。在该项目(ASHRAE RP-1681)中,通过系统设计的实验确定了14个可商购的发光二极管照明亮度的热增益分布。对于这些亮度,测定对流热增益和辐射热增益之间的分裂和调节空间热增益和天花板气能增益之间的分裂。伴侣文章介绍了测试方法和导频测试结果。本文介绍了灯具选择并分析正式的测试结果。

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