Resilient and adaptive

“Ensure adaptability to climate changes and minimise environmental impact, while being contextually adaptable to local climate zones as well as changes in building use”

This dimension focuses on building design and construction so it can withstand environmental challenges like natural disasters and climate change. 


Ready for change

Buildings can use nature-based solutions, such as adding greenery for cooling, and automation for a comfortable indoor climate to manage the increasing number of heatwaves. This dimension can also involve integrating elements to restore ecosystems to mitigate the consequences of climate change. Resilient buildings need to be able to adapt to emergencies, such as power outages, fires, intrusions or health emergencies. Features that support this should be applied to both new and existing buildings.

To help stakeholders see what is required to meet the requirements of this dimension, it uses four indicators. 

 

 

 

Key elements to designing buildings to be resilient and adaptive

Integrated resilient cooling and ventilation systems

This indicator involves integrating active (mechanical) and passive (natural) ventilation methods to enhance resilience and ensure the well-being of occupants.

Material and circularity
To increase the building’s lifespan and reduce waste, this indicator invoves selecting low-carbon, durable materials, promoting reuse and recycling, and reducing the number of building components. It also includes the use of servicing and spare parts. Read more about the three sub-indicators.
Blue and green infrastructure
This refers to outdoor elements, such as water retention systems and exterior greenery, designed to cool and purify the air, and retain water. 
Advanced smart and/or automated features

This indicator uses smart features for safety and indoor comfort, like solar shading, locks, power management and connected emergency response services.

Policy recommendations

The recent Healthy Buildings Barometer has developed policy recommendations that can support these indicators and encourage resilient and adaptive buildings.

 

This includes:

  • Establishing a coherent and well-functioning policy framework for buildings
  • Strengthening legislation to provide access to high-quality, healthy, affordable and environmentally sustainable buildings
  • Increasing focus on Indoor Environment Quality with clear definitions and policy enforcement
  • Establishing a holistic framework for automation of building components, services and control
  • Establishing integrated climate-responsive building design strategies
  • Increasing training for professionals and policy makers on how to integrate indicators

 

Case studies
SWEDEN
Kvartetten office complex
The building is designed to withstand Sweden’s cold winter temperatures while using bio-climatic and biophilic design principles.
Belgium
Detached single-family home
Explore how a social housing residence in Belgium incorporates many thermal comfort features that keep the home cool in summer and warm in winter.
FRANCE
Malakoff raise-the-roof apartments
See how a two-apartment rooftop extension to an existing apartment building in France achieved great indoor air quality and ventilation, and met the for more living space in dense urban areas
FRANCE
Marcey-les-Grèves school
A renovation of the Marcey-le-Grèves school in France meets the challenge of hotter outdoor temperatures by introducing solar window shading and automatic window ventilation.
DENMARK
Langebjerg school
The Langebjerg School embarked on a renovation with roof windows to improve their dark, stuffy classrooms.