Development of datasets, inverse models, and methods for adaptive fault detection and diagnostics in commercial buildings

商业建筑中30%至50%的能源消耗是由于维护不善，退化和控制不当的设备和组件而浪费的。考虑到商业建筑的室内气候控制占加拿大总能源使用量的13%和二氧化碳排放量的11%，优化其运行具有巨大的潜力，可以减少对环境的影响，并提供舒适，健康和高效的室内环境。该研究计划的总体目标是通过使用现代建筑自动化和控制系统中收集的传感器，仪表和执行器数据来优化商业建筑中的能源使用和居住者舒适度。考虑到这一愿景，该研究计划将解决文献中的四个基本空白：（1）创建一个数据集，包括常见的建筑故障，其感官症状，发生频率以及对能源使用和舒适度的影响;（2）开发逆模型，从传感器，仪表和执行器数据解释建筑物中的多物理过程和居住者行为;（3）开发可扩展的方法来诊断建筑系统和组件中的物理故障;以及（4）开发可扩展的方法来诊断和纠正控制编程中的软故障。研究方法需要现场规模的数据收集和分析，使用现有的控制和自动化基础设施的三个办公楼在卡尔顿大学，现场试验和建筑性能模拟。* 拟议的研究计划将作出重大的短期和长期的知识，环境，经济和HQP贡献加拿大。将创建新的数据集、模型和方法。这些将帮助我们了解我们的建筑物是如何运作和使用的。更广泛地使用本研究计划中开发的故障检测和诊断方法将减少建筑物对环境和经济的影响。加拿大一家建筑数据分析公司采用这些方法将有助于我们的知识型经济。更重要的是，两名博士，两名硕士和三名本科生将处理来自真实的建筑物的数据，学习他们的系统和组件，以及他们的缺点。在团队环境中，他们将对建筑物理，室内环境质量，建筑性能模拟和数据科学进行跨学科研究。这些技能是无价的，因为在加拿大很少有工程项目提供建筑工程的全面背景，尽管建筑物在我们的经济和社会中发挥着重要作用。

30 to 50% of the energy use in commercial buildings is wasted due to poorly maintained, degraded, and improperly controlled equipment and components. Given that indoor climate control in commercial buildings accounts for 13% of the total energy use and 11% of the CO2 emissions in Canada, optimizing their operation represents great potential to reduce our environmental impact and to provide comfortable, healthy, and productive indoor environments.*** The overall objective of this research program is to optimize the energy use and occupant comfort in commercial buildings by using sensor, meter, and actuator data gathered in modern building automation and control systems. With this vision in mind, the research program will address four fundamental gaps in the literature: (1) create a dataset comprising common building faults, their sensory symptoms, occurrence frequencies, and impact on energy use and comfort; (2) develop inverse models that explain multiphysical processes and occupant behaviour in buildings from sensor, meter, and actuator data; (3) develop scalable methods to diagnose physical faults in building systems and components; and (4) develop scalable methods to diagnose and correct soft faults in controls programming. The research approaches entail field-scale data collection and analyses using existing controls and automation infrastructure of three office buildings in Carleton University, field trials, and building performance simulation. ***The proposed research program will make significant short-term and long-term intellectual, environmental, economic, and HQP contributions to Canada. New datasets, models, and methods will be created. These will help us understand how our buildings perform and are used today. Wider usage of fault detection and diagnostics methods developed in this research program will reduce the environmental and economic impact of buildings. Adoption of these methods by a Canadian building data analytics company will contribute to our knowledge-based economy. More importantly, two PhD, two MSc, and three undergraduate students will work on data from real buildings, learn their systems and components, and their shortcomings. In a team environment, they will conduct interdisciplinary research on building physics, indoor environmental quality, building performance simulation, and data-science. These skills are invaluable, as few engineering programs in Canada provide a comprehensive background in building engineering, despite buildings' major role in our economy and society.