Transformingour citiesinto forests.

We exist to usher in a new era of urban design at the intersection of architecture and ecology. Our vision is a world where the built environment is shaped for plants, animals, and humans. We are developing nature-first products to cool our cities, achieve sustainability targets and bring us closer to nature.

An introduction

An introduction into our problem space and how we’re developing novel ecosystems on buildings4 mins

Our growing population puts increasing pressure on biodiversity. Intensive land use and urban development, driven by demand for high-density housing, continue to destroy habitat corridors, creating isolated habitat islands within our cities. Urban footprints have significant implications for air and water quality and for the capacity of our cities to remain hospitable as healthy ecosystems.

The global effort to improve urban environments necessitates an eco-anthropocentric approach to architecture and urban design.

To address this, we have developed two integrated facade systems specifically designed for the urban landscape, which leverage biophilic design principles and emerging technologies to provide opportunities for shading, porosity and a thriving ecosystem.

Our systems are architecturally designed to act as a multifunctional, shading facade that can be retrofitted to commercial and residential buildings. They include a supportive infrastructure and biological component, specifically designed to create sophisticated habitats for native fauna.

“The most rapid way, and cheapest way, and the most dramatic way we can reduce emissions is to reduce the carbon associated with heating and cooling our buildings, and that’s the first thing. That should take priority.”

– Richard Allan, Professor of Climate Science at University of Reading

Building facades become habitats for natural flora and fauna.

The multilayered facade system facilitates an integrated living ecosystem through the synthesis of built and natural (life) forms that perform specific functions. Its porous, vegetated screen allows for the movement of air, water, and fauna whilst supporting plant growth. Using smart irrigation systems that have integrated sensor and actuator technology it acts as a water management system, harvesting and redistributing rainwater. It reduces the heat load on buildings (mitigating energy consumption through decreased reliance on air-conditioning), reduces urban heat island effect, improves air quality and, through biosequestration, functions as a carbon capture and storage system. By design, the system mimics the complex and layered canopy structures of undergrowth and mid-level canopy systems to reconnect and extend bird corridors and support other wildlife, allowing for the reconnection of habitat corridors across a city. If applied at scale, it has the potential to increase biodiversity and the rapid rewilding of urban environments.

These facade systems are technologies for the rewilding of urban spaces are technologies for the rewilding of urban spaces. By synthesising architecture, ecology and habitat, and reimaging the relationships between dwelling and nature, they enable intimate engagement and a shared future for flora, fauna and human beings.

Daniel GriffinCo-Founder

Facts and Figures

Heat kills more people in Australia than any other natural disaster

McMichael, Anthony & Campbell-Lendrum, DH & Corvalan, Carlos & Ebi, Kristie & Scheraga, Joel & Woodward, Alistair. (2003). Climate Change And Human Health: Risks And Responses

By 2050, an estimated 1,015 people will die from urban heat in Sydney each year

DAWE (Australian Government Department of Agriculture, Water and the Environment) (2017). State of the environment 2016, DAWE, Canberra

Building heating and cooling accounts for 1/3 of commercial building carbon emissions

U.S. Energy Information Administration, Annual Energy Outlook 2018 (Washington DV: U.S. Department of Energy, 2018)

30% of Australia’s ‘threatened species’ live in our cities

Ives, Christopher & Lentini, Pia & Threlfall, Caragh & Ikin, Karen & Shanahan, Danielle & Garrard, Georgia & Bekessy, Sarah & Fuller, Richard & Mumaw, Laura & Rayner, Laura & Rowe, Ross & Valentine, Leonie & Kendal, Dave. (2016). Cities are hotspots for threatened species. Global Ecology and Biogeography.


Our systems reduce the heat load on building from solar radiation by 48%


A 40% reduction in carbon emissions from building operations


Our systems are capable of harvesting 1.17L of rainwater per sqm of building facade for every millimetre of rainfall


Nesting hollow boxes experience a reduction in peak temperature of 12°C

For more information on our products, design services or research, email us at [email protected]