Energy Savings Calculations For Commercial Building Energy Efficiency Upgrades

Energy Savings Calculations for Commercial Building Energy Efficiency Upgrades

Code-compliant building materials and equipment will typically have a lower initial cost; however, the lifetime energy savings of the high efficiency equipment will often justify the upfront cost premium and result in a more cost-effective solution. Energy Savings Calculations for Commercial Building Energy Efficiency Upgrades assists energy professionals, contractors, building owners, and managers in developing energy savings estimates that can facilitate a quick assessment of the potential energy savings that might be realized when replacing existing building components with the highest efficiency equipment. It also provides algorithms to estimate greenhouse gas emission reductions that may be achieved by building energy efficiency upgrades and the impact these upgrades can have on building electrification-decarbonization projects. This book: Focuses on the development of energy savings estimates based upon a whole building’s energy consumption and the energy consumption associated with building end-uses such as space heating, space cooling, ventilation, lighting, and so forth. Includes over 70 illustrative examples using algorithms to demonstrate how energy savings and greenhouse gas emission reductions may be estimated utilizing different strategies and equipment.

Principles and Applications of Waste Heat Recovery

"Principles and Applications of Waste Heat Recovery" dives deep into the principles, technologies, and real-world applications of waste heat recovery in industrial contexts. We offer an indispensable resource for engineers, researchers, and professionals keen on unlocking the potential of waste heat to enhance energy efficiency and promote sustainability. We lay a solid foundation in the fundamental principles of waste heat recovery, covering topics such as heat transfer mechanisms, thermodynamic cycles, and strategies for optimizing efficiency. Readers gain insights into key technologies like heat exchangers, thermoelectric generators, and organic Rankine cycles, crucial for designing effective waste heat recovery systems. Moving beyond theoretical concepts, we delve into practical industrial applications across diverse sectors. Our book showcases case studies, practical examples, and industry insights, highlighting successful implementations in manufacturing, chemical processing, power generation, and renewable energy integration. We address crucial aspects such as integrating waste heat recovery with renewable energy sources, regulatory frameworks, and policy initiatives promoting sustainable energy practices. Through a blend of theoretical knowledge, practical insights, and industry best practices, we equip readers with the tools needed to optimize energy usage, reduce emissions, and enhance operational efficiency.

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