- Beyond Sustainability - The Case for Regenerative Design
- Understanding Place - Climate, Site, and Solar Geometry
- The Six Integrated Systems - An Overview
- Building with the Earth—Natural Materials
- Passive Solar Design - Heating and Cooling Without Machines
- Off-Grid Energy Systems - Power from the Sun
- Water - Catching, Storing, and Cycling
- Liquid Waste Treatment - Botanical Systems
- Food Systems—Buildings That Feed
- Community Design - Scaling Up
- The Integrated Design Process
- Appendix A: Glossary of Key Terms
- Appendix B: The Pangea Textbook Series
- Appendix C: Key Design Principles at a Glance
- The Regenerative Community Vision
- Site Assessment and Land Reading
- Land Use Law and Legal Frameworks
- Master Planning for Regenerative Communities
- Infrastructure Systems Integration
- Housing Typologies and Density Design
- Community Governance Structures
- Economic Models for Community Development
- Phased Development Strategy
- Community Resilience and Long-Term Stewardship
- Appendix A: Legal Entity Comparison Chart
- Appendix B: Community Design Checklist
- Appendix C: Glossary of Community Development Terms
Pangea Biotecture organizes its work around six integrated systems. Every complete regenerative building or community engages all six. The Primer introduces each one; the other books in this series explore each in depth.
Structure and Materials — The physical fabric of the building, built from natural, low-embodied-energy materials: recycled tires, cob, adobe, straw bale, hempcrete, can and bottle walls, and natural plasters. The structure is also the building’s primary thermal mass and its first line of climate control.
Energy — Passive solar design first: orientation, thermal mass, and glazing positioned to harvest winter sun and exclude summer heat. Then active systems: off-grid solar photovoltaic arrays, battery storage, and where appropriate, wind generation. The goal is a building that produces all the energy it needs from renewable sources, with no grid dependency.
Water — Rainwater harvested from the roof and stored in cisterns, filtered to potable standard, and heated by solar water heaters. No municipal supply is required. Water is used efficiently and cycled through the system rather than being consumed once and discarded.
Liquid Waste Treatment — Greywater from sinks and showers treated in interior botanical cells — living planters that biologically process and clarify the water, which is then used to flush toilets. Blackwater from toilets treated in exterior botanical cells. Composting integrated throughout. All waste becomes resource.
Food Systems — Greenhouse spaces integrated into the building serve as thermal buffers in winter and food production zones year-round. Botanical treatment cells grow productive plants. Aquaponics systems produce fish and vegetables. Composting generates soil amendment. The building feeds its occupants.
Community — At scale, buildings become communities. Shared infrastructure — microgrids, shared water systems, communal food production, and shared governance structures — multiplies the benefits of each individual system and creates resilient, interdependent neighborhoods.