Building energy systems have a profound impact on the human condition, providing a comfortable, healthy, and productive indoor environment for daily life, while being responsible for significant energy, environmental, and economic costs. Buildings must meet increasingly complex objectives to achieve greater electrification and decarbonization and respond to societal needs for affordable housing and changes in the use of commercial buildings. To design effective solutions and analyze their performance, both engineers and architects need to stand on a solid foundation of engineering fundamentals, which this course intends to impart. After reviewing the motivation, history, and trends in building energy system design, you will learn psychrometric applications and analysis, the climate factors that affect building system design, the application of heat transfer to building heat gains and losses, and the calculation of heating and cooling loads that drive the engineering design of building energy systems, covered in subsequent courses.
What you'll learn
Apply psychrometric principles to analyze building air conditions and moisture content
Evaluate climate factors that influence building energy system design decisions
Calculate heat transfer through building envelopes to determine gains and losses
Compute heating and cooling loads for buildings to support system sizing and design
Course objectives
Establish engineering fundamentals needed for building energy system design
Understand the motivation, history, and current trends in building energy systems
Prepare for advanced coursework in building system engineering and design