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The Green Studio Handbook

The Green Studio Handbook

Environmental Strategies for Schematic Design

by Alison G. Kwok and Walter T. Grondzik · 3rd edition · 2022 · Routledge

Sustainable Architecture Reference Book Sustainability, Climate & Building Performance Sustainable Design Strategies & Environmental Building Systems Intermediate

A practical handbook for applying environmental strategies during schematic design. It provides step-by-step guidance, diagrams, preliminary sizing information and case studies to help designers make informed decisions about energy, water, materials and indoor environmental quality.

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Title: The Green Studio Handbook



Subtitle: Environmental Strategies for Schematic Design



Authors: Alison G. Kwok and Walter T. Grondzik



Publication Type: Sustainable Architecture Reference Book / Environmental Design Handbook



Edition: 3rd edition (2022)



Publisher: Routledge



Category Focus: Sustainable Design, Climate-Responsive Architecture and Building Performance



Slug: the-green-studio-handbook-environmental-strategies-for-schematic-design

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Summary

The third edition organizes sustainable design knowledge into 43 environmental strategies, covering areas such as site planning, building envelope design, lighting, heating and cooling, energy, electricity, water and waste.
Each strategy explains its underlying principles, provides guidance for early-stage implementation, identifies important design considerations and includes tables or charts that support preliminary sizing. The book also contains more than 500 sketches and colour illustrations, a glossary, and a project index covering buildings in 20 countries.

Its main strength is that it translates environmental design principles into actions architects can apply while decisions about massing, orientation, façade design and building systems are still flexible.

Key takeaways

  • Environmental performance should be considered from the earliest stages of architectural design.
  • Site analysis helps identify opportunities for solar access, shading, ventilation and resource conservation.
  • Building orientation influences daylight, solar heat gain and energy demand.
  • Passive design strategies should be evaluated before relying heavily on mechanical systems.
  • External shading can reduce unwanted solar heat gain while preserving useful daylight.
  • Window size, glazing properties and placement affect daylight, views and thermal performance.
  • Natural ventilation depends on climate, airflow paths, opening design and surrounding conditions.
  • The building envelope plays a major role in energy use, comfort and moisture control.
  • Daylighting strategies should balance illumination, glare and cooling demand.
  • Heating and cooling systems should be selected according to climate, occupancy and building loads.
  • Energy-efficient lighting reduces electricity demand and can complement daylighting.
  • Renewable energy systems are most effective when integrated with the overall building design.
  • Water conservation requires coordinated decisions about fixtures, collection, storage and reuse.
  • Material selection should consider resource use, durability and environmental consequences.
  • Waste reduction should be considered during design, construction and building operation.
  • Preliminary calculations help determine whether an environmental strategy is feasible before detailed engineering.
  • Environmental strategies interact, so their combined effects must be evaluated rather than considered independently.
  • Case studies help translate theoretical principles into practical design decisions.
  • Climate-specific adaptation is essential; a strategy that works in one region may not perform equally well elsewhere.
  • Sustainable design is most effective when environmental performance informs architectural form rather than being added after the design is complete.

CreaCore Insight

The best time to improve building performance is when the design is still flexible.
This handbook helps architects connect environmental principles with concrete schematic-design decisions. Its value lies in providing a practical bridge between sustainability theory and the choices that shape building form, façade systems, comfort and energy demand.

Practical application

1. Prepare a site analysis covering orientation, solar exposure, prevailing winds, vegetation and surrounding obstructions.
2. Test alternative building orientations and massing configurations.
3. Develop preliminary shading studies for important façades.
4. Estimate daylight availability and identify potential glare problems.
5. Investigate natural ventilation opportunities and the feasibility of cross-ventilation.
6. Compare glazing, wall and roof assemblies for thermal performance and moisture resistance.
7. Estimate cooling and lighting demand before selecting building-services systems.
8. Evaluate solar photovoltaic opportunities and other suitable renewable-energy options.
9. Develop a water strategy covering efficient fixtures, rainwater harvesting and appropriate reuse.
10. Compare material alternatives using durability, local availability, maintenance and environmental impact.
11. Record the expected benefits, limitations and preliminary sizing of each selected strategy.
12. Reassess the combined performance of the strategies before finalizing schematic design.
For projects in Bangladesh, prioritize external shading, glare control, appropriate glazing, roof heat reduction, rainwater management and moisture-resistant detailing. Assess natural ventilation against outdoor humidity, air pollution, noise, security and seasonal weather conditions.

Good to know

Who it's for: Architecture students, practicing architects, environmental designers, building-services engineers, sustainability consultants and architectural educators

ISBN: 9781317228622

Topics

Green Building Schematic Design Passive Design Site Analysis Building Orientation Solar Shading Daylighting Natural Ventilation Building Envelope Energy Efficiency Heating and Cooling Renewable Energy Water Conservation Waste Management Sustainable Materials Environmental Design Building Performance Climate-Responsive Architecture

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