The term regenerative (or regeneration) means to regrow or to be restored. Regenerative design is based on the idea of creating a building that mimics the restorative aspects found in nature to bring about a positive impact on the overall environment. Because it goes beyond maintaining this environment, regenerative design differs from sustainable design. This approach is sometimes referred to as the precursor to the related terms cradle-to-cradle, 2CC2, C2C or cradle 2 cradle design.
NB Built for the environment, Addressing the climate and biodiversity emergency with a fair and sustainable built environment, published by the RIBA in September 2021, defines regenerative design as: ‘…a system of technologies and strategies, based on an understanding of the inner working of ecosystems that generates designs to regenerate rather than deplete underlying life support systems and resources within socioecological wholes.’
 Six aspects of regenerative design
4. Produce projects that continuously evolve and renew.
5. Incorporate and build upon existing paradigms, including:
- Triple net zero (energy, water and waste).
- Carbon balancing (embodied and operational carbon).
- Health and wellness design.
- Materials transparency.
- Social equity.
6. Engage and involve the community on a continuous basis.
Regenerative design should reconnect humans and nature, ideally through the continuous renewal of a collection of ecological, social systems. Unlike traditional methods, regenerative approaches solicit and encourage continuous feedback at every stage to deliver adaptable, dynamic results. It also increased the opportunity for the creation of new supply chains based on these dynamic results.
Aside from their impact on the natural environment, these processes should be socially beneficial to the community. As such, regenerative design seeks to create human-centric, ecologically restorative projects where people and the planet are the primary priorities.
 Frameworks and examples
Although many organisations are investigating regenerative design techniques, there are not many recognised frameworks available. Those that do exist tend to be conceptual rather than concrete, although they can be used in conjunction with more established systems such as BREEAM or LEED.
A full realisation of regenerative design has yet to be built, but biomimicry examples such as Stefano Boeri’s Torre Del Bosco in Milan illustrate how the regenerative design principles of green walls and roofs can benefit a large city.
Milan’s Bosco Verticale apartment block uses hundreds of varieties of trees and shrubs that are an important part of the project’s environmental strategy. In the winter, the bare branches allow the sun to warm apartment interiors through large floor-to-ceiling windows, so reducing the heating requirements. In the summer, trees in full leaf provide shading, which minimises solar gain and reduces cooling needs. The concept cuts the buildings’ energy use, while providing Milanese with a green vertical oasis in the city’s built-up centre.
Boeri has introduced subsequent proposals to build ‘forest cities’ as a means of combating urban pollution. His ‘Vertical Forest' concept is a proposal for a city in Shijiazhuang, China, which could serve as a prototype for other new green urban developments.
The city is made up of high-rise towers covered in trees and other planted vegetation which, by filtering dust particles and absorbing carbon dioxide, would help de-pollute the surrounding environment.
There are also more modest measures that can be applied to the material selection process. Traditional renewable materials such as timber can be harvested and replanted, and innovative, regenerative materials (such as biocement) are regularly being brought to the marketplace.
Resource conservation efforts continue as well. Waste reduction methods for things such as product packaging have improved, and efficient lighting, heating and cooling methods are being developed as economies transition away from fossil fuels.
 Related articles on Designing Buildings Wiki
- Architects Declare.
- BREEAM Wiki.
- CIBSE Case Study: Bosco Verticale.
- Cradle to cradle product registry system.
- Leadership in Energy and Environmental Design LEED
- Re-establish human relationships with the natural world
- Sustainability in building design and construction
- Vertical Forest
- Wood and the Circular Economy
- Colin Rohlfing, HDR, 6 Things to Know About Regenerative Design.
Issue support documents
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Issue support documents are written for named BREEAM Issues or sub-issues. More info. (ac) = awaiting content.
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- BREEAM Sustainability champion
- BREEAM Environmental management
- BREEAM Considerate construction
- BREEAM Monitoring of construction site impacts
- BREEAM Aftercare support
- BREEAM Seasonal commissioning
- BREEAM Testing and inspecting building fabric
- BREEAM Life cycle cost and service life planning
- BREEAM Stakeholder consultation (ac)
- BREEAM Commissioning (ac)
- BREEAM Handover (ac)
- BREEAM Inclusive and accessible design (ac)
- BREEAM Post occupancy evaluation
 Health and Wellbeing
- BREEAM Visual comfort Daylighting (partly ac)
- BREEAM Visual comfort View out
- BREEAM Visual comfort Glare control
- BREEAM Indoor air quality plan
- BREEAM Indoor air quality Ventilation
- BREEAM Thermal comfort
- BREEAM Internal and external lighting (ac)
- BREEAM Indoor pollutants VOCs (ac)
- BREEAM Potential for natural ventilation (ac)
- BREEAM Safe containment in laboratories (ac)
- BREEAM Acoustic performance
- BREEAM Safety and security (ac)
- BREEAM Reduction of energy use and carbon emissions
- BREEAM Energy monitoring
- BREEAM External lighting
- BREEAM Low carbon design
- BREEAM Passive design
- BREEAM Free cooling
- BREEAM LZC technologies
- BREEAM Energy efficient cold storage (partly ac)
- BREEAM Energy efficient transportation systems
- BREEAM Energy efficient laboratory systems
- BREEAM Energy efficient equipment (partly ac)
- BREEAM Drying space
- BREEAM Transport assessment and travel plan
- BREEAM Public transport accessibility
- BREEAM Sustainable transport measures
- BREEAM Proximity to amenities
- BREEAM Cyclist facilities
- BREEAM Alternative modes of transport (ac)
- BREEAM Maximum car parking capacity
- BREEAM Travel plan
- BREEAM Home office (ac)
- BREEAM Water consumption
- BREEAM Water efficient equipment
- BREEAM Water monitoring
- BREEAM Water leak detection (ac)
- BREEAM Hard landscaping and boundary protection
- BREEAM Responsible sourcing of materials
- BREEAM Insulation
- BREEAM Designing for durability and resilience
- BREEAM Life cycle impacts
- BREEAM Material efficiency (ac)
- BREEAM Construction waste management
- BREEAM Recycled aggregates
- BREEAM Speculative floor & ceiling finishes
- BREEAM Adaptation to climate change
- BREEAM Operational waste
- BREEAM Functional adaptability (ac)
 Land Use and Ecology
- BREEAM Site Selection
- BREEAM Ecological value of site
- BREEAM Protection of ecological features
- BREEAM Minimising impact on existing site ecology
- BREEAM Enhancing site ecology
- BREEAM Long term impact on biodiversity (ac)
- BREEAM Impact of refrigerants
- BREEAM NOx emissions
- BREEAM Flood risk management (ac)
- BREEAM Surface water run-off (ac)
- BREEAM Reduction of night time light pollution (partly ac)
- BREEAM Reduction of noise pollution
Once an ISD has been initially created the '(ac)' marker can be removed
This particular index is based around the structure of the New Construction and RFO schemes.