How ancient principles of responsibility toward future generations inspire our most advanced environmental solutions and long-term vision.
For thousands of years, many cultures around the world have placed environmental responsibility at the heart of their traditions. Indigenous communities spoke of the Seven Generations Principle, which states that every decision made today should be assessed according to its impact on future generations.
Ancient agricultural systems, such as the chinampas of Central America or the underground qanat canals of Persia, demonstrated an advanced and balanced relationship with natural cycles. These examples are not merely historical references; they serve as models for a new generation of architecture: architecture that goes beyond climate neutrality and designs buildings capable of actively contributing to the regeneration of ecosystems.
In the face of today’s environmental challenges, simply reducing harm is no longer enough. We must move from a logic of “doing less damage” to the ambition of “making a positive contribution.” Our framework for buildings with a positive environmental impact combines inherited knowledge with the latest scientific advances, driving this transformation through five pillars.
Regenerative material cycles
We eliminate the concept of waste by considering material flows through a closed-loop approach. This includes:
Using bio-based and local materials whenever possible, such as mass timber, mycelium-based insulation, and hempcrete.
Applying “building as a material bank” strategies, where construction elements are designed to be dismantled and reused in the future.
Collaborating with urban mining initiatives to reuse existing building stock.
Energy-positive operations
Instead of simply reducing energy demand, we design buildings that generate a surplus of renewable energy through:
Photovoltaic-integrated façades and roofs.
Ground-source heat exchange systems adapted to local geological conditions.
Smart energy management platforms that feed surplus electricity back into the grid, helping strengthen community resilience.
Water cycle restoration
Buildings integrate into the water cycle rather than disrupting it through:
Rainwater harvesting and on-site purification systems.
Constructed wetlands and planted bioswales for stormwater treatment.
Permeable surfaces and green roofs that support groundwater recharge and reduce the urban heat island effect.
Biodiversity integration
Biodiversity-friendly green walls and native plants that attract pollinators.
Bird- and bat-friendly design features.
Rooftop micro-forests and edible landscapes that help restore urban biodiversity.
Collective well-being and equity
A truly regenerative building also serves its human ecosystem through:
Shared community spaces and resource hubs.
Natural light and biophilic design to support users’ health and well-being.
Inclusive access and affordability strategies to prevent exclusion or displacement.
For thousands of years, many cultures around the world have placed environmental responsibility at the heart of their traditions. Indigenous communities spoke of the Seven Generations Principle, which states that every decision made today should be assessed according to its impact on future generations.
Ancient agricultural systems, such as the chinampas of Central America or the underground qanat canals of Persia, demonstrated an advanced and balanced relationship with natural cycles. These examples are not merely historical references; they serve as models for a new generation of architecture: architecture that goes beyond climate neutrality and designs buildings capable of actively contributing to the regeneration of ecosystems.
In the face of today’s environmental challenges, simply reducing harm is no longer enough. We must move from a logic of “doing less damage” to the ambition of “making a positive contribution.” Our framework for buildings with a positive environmental impact combines inherited knowledge with the latest scientific advances, driving this transformation through five pillars.
Regenerative material cycles
We eliminate the concept of waste by considering material flows through a closed-loop approach. This includes:
Using bio-based and local materials whenever possible, such as mass timber, mycelium-based insulation, and hempcrete.
Applying “building as a material bank” strategies, where construction elements are designed to be dismantled and reused in the future.
Collaborating with urban mining initiatives to reuse existing building stock.
Energy-positive operations
Instead of simply reducing energy demand, we design buildings that generate a surplus of renewable energy through:
Photovoltaic-integrated façades and roofs.
Ground-source heat exchange systems adapted to local geological conditions.
Smart energy management platforms that feed surplus electricity back into the grid, helping strengthen community resilience.
Water cycle restoration
Buildings integrate into the water cycle rather than disrupting it through:
Rainwater harvesting and on-site purification systems.
Constructed wetlands and planted bioswales for stormwater treatment.
Permeable surfaces and green roofs that support groundwater recharge and reduce the urban heat island effect.
Biodiversity integration
Biodiversity-friendly green walls and native plants that attract pollinators.
Bird- and bat-friendly design features.
Rooftop micro-forests and edible landscapes that help restore urban biodiversity.
Collective well-being and equity
A truly regenerative building also serves its human ecosystem through:
Shared community spaces and resource hubs.
Natural light and biophilic design to support users’ health and well-being.
Inclusive access and affordability strategies to prevent exclusion or displacement.