A PRACTICAL GUIDE TO INTEGRATING BUILDING SYSTEMS FOR HEALTHY, HIGH-PERFORMANCE, AND NET-ZERO DESIGN
Sustainable architecture depends on more than attractive forms and efficient floor plans. High-performance buildings require mechanical and electrical systems that work with the building envelope to reduce energy demand, improve occupant comfort, protect indoor air quality, and support long-term carbon goals.
Mechanical and Electrical Systems in Sustainable Architecture provides a clear guide to coordinating building services with passive design, envelope performance, indoor environmental quality, and net-zero infrastructure. Written for students and professionals, it explains how HVAC, lighting, electrical distribution, controls, renewable energy, and architectural decisions influence one another throughout design, construction, commissioning, and operation.
Rather than treating mechanical and electrical systems as separate technical additions, this book presents them as essential parts of one integrated design strategy. Readers learn how orientation, insulation, glazing, air tightness, shading, daylight, ventilation, and thermal mass can reduce equipment loads and improve whole-building performance.
Inside this comprehensive guide, readers will explore:
- High-performance building envelopes, including insulation, thermal bridging, glazing, moisture control, air barriers, solar heat gain, shading, and system coordination
- Energy-efficient HVAC design, covering load reduction, ventilation, heat recovery, zoning, equipment selection, electrification, and intelligent controls
- Indoor environmental quality (IEQ), including thermal comfort, indoor air quality, humidity, daylight, acoustics, filtration, and occupant wellbeing
- Electrical power and smart lighting systems, with guidance on efficient distribution, LED lighting, daylight harvesting, occupancy controls, metering, emergency power, and power quality
- Building automation and performance monitoring, including sensors, control sequences, energy-management systems, fault detection, data analysis, and responsive operation
- Renewable energy and storage integration, including solar photovoltaic systems, batteries, inverters, microgrids, demand management, and grid-interactive strategies
- Net-zero carbon infrastructure, with practical discussions of energy conservation, electrification, operational and embodied carbon, resilience, and life-cycle performance
- Commissioning and post-occupancy evaluation, including testing, performance verification, maintenance planning, measurement, and continuous improvement
The book also explains how architects can collaborate effectively with engineers, energy consultants, contractors, commissioning professionals, and facility managers. This integrated approach helps prevent system conflicts, reduce oversizing, control costs, and keep sustainability goals achievable from concept through occupancy.
Whether designing a new high-performance building, improving an existing facility, studying environmental systems, or coordinating a multidisciplinary project, readers will find practical guidance for balancing energy performance, occupant needs, constructability, and long-term value.
This book is an essential resource for architects, architectural and building-services engineers, sustainability consultants, construction professionals, facility managers, educators, and students.
By connecting architectural design with advanced building systems, it equips readers to create buildings that use less energy, provide healthier indoor environments, adapt intelligently to changing conditions, and move confidently toward a resilient net-zero carbon future.
