Commercial buildings account for approximately 35% of total US electricity consumption, of which nearly two-thirds is met by fossil fuels resulting in an adverse impact on the environment. This adverse impact can be mitigated by lowering energy consumption via control of occupant plugload usage in a closed-loop building environment. In this work, we conducted multiple experiments to analyze changes in occupant plugload energy consumption due to incentives and/or visual feedback. The incentives entailed daily monetary values between $5 and $50 administered in a randomized order and the visual feedback consisted of a web-based dashboard aimed at increasing the energy awareness of participants. Experiments were performed in government office and university buildings at NASA Ames Research Park located in Moffett Field, CA. Autoregressive models were constructed to predict expected plugload savings in the presence of exogenous variables. Analysis of the data revealed modulation of plugload energy consumption can be achieved via visual feedback and incentive mechanisms suggesting that occupant-in-the-loop control architectures may be effective in the commercial building environment. Our findings indicate that the mean energy reduction due to visual feedback in office and university environments were ~9.52% and ~21.61%, respectively. By augmenting the visual feedback in the university environment with a monetary incentive, the mean energy reduction was found to be ~24.22%
翻译:商业建筑约占美国电力消耗总量的35 %, 其中近三分之二由化石燃料满足,从而对环境产生不利影响。通过控制闭路建筑环境中的占有式塞装装置的使用,可以降低能源消耗,从而减轻这一不利影响。在这项工作中,我们进行了多次实验,分析由于奖励和/或视觉反馈而导致的占用式塞装装置能源消耗的变化。这些奖励措施意味着以随机方式管理5至50美元的每日货币价值,视觉反馈包括一个网络仪表板,旨在提高参与者的能源意识。在位于加利福尼亚州Moffett Field的美国航天局Ames研究园的政府部门和大学大楼中进行了实验。建立了自动递减模型,以预测外生变量存在的情况下预期会节省的塞装装置。通过视觉反馈和激励机制,可以实现对热载装能源消耗的调控,这表明在商业建筑环境中,住式控制装置可能有效。我们的调查结果显示,由于办公室和大学环境的视觉反馈而导致的平均能源减少量。 22 在大学中,通过视觉反馈,分别通过视觉-9.24 和视觉-21 增长, 增长环境 。