How can thoughtful design shape resilient futures?

How can thoughtful design shape resilient futures?

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Sustainability in structural design encompasses minimising environmental impact, promoting social equity by creating accessible and inclusive spaces, and supporting long-term economic viability. By applying lifecycle thinking, the entire process — from material sourcing to deconstruction — maximises value and reduces negative effects at every stage.

Sustainable design minimises impact, promotes equity and fosters resilience through lifecycle thinking, efficient materials, and early collaboration.

From concept to construction to operation, every decision made benefits both people and the planet. Key principles guiding the design of sustainable structures include:

Minimising embodied energy

Selecting low-carbon materials like recycled steel or mass timber

Optimising structural efficiency

Designing for effective load paths and minimal material use

Designing for longevity

Factoring in corrosion resistance, seismic resilience and adaptability

Enabling reuse and deconstruction

Using modular systems and reversible connections

Integrating passive design

Supporting thermal comfort and daylighting through structural choices

Collaborating early

Engaging architects, engineers and sustainability consultants from the concept stage

Early-stage decisions are especially critical. Choices made during concept design, such as orientation, structural systems and material selection, can significantly influence sustainability outcomes. For example, GHD’s work on the Barwon Water headquarters in Victoria, Australia, embedded passive design and renewable energy strategies from the outset, resulting in a building that is both efficient and community-focused.

Instead of demolishing the headquarters’ two original brutalist buildings, we adopted a regenerative design that preserved and repurposed the structures, linking them with a central atrium to enhance daylight, ventilation and community interaction. Sustainable features like solar panels, rainwater reuse, adaptable workspaces and a high-performance façade, combined with passive design and local materials, significantly reduced embodied carbon and highlighted the long-term environmental and social benefits of early design decisions.

How to evaluate a structure's sustainability

Assessing how sustainable a structure is involves a mix of environmental, social and performance metrics. Common indicators include:

  • Embodied carbon: Measured using tools like OneClick LCA, EC3 or Tally
  • Material efficiency: Ratio of structural material to usable area
  • Life cycle assessment: Evaluating environmental impact across design, construction, use and end-of-life
  • Durability index: Comparing predicted service life to design life
  • Circularity score: Measuring reusability and recyclability of components
  • Construction waste reduction: Percentage of waste diverted from landfill
  • Accessibility: Making spaces usable by everyone
  • Safety: Implementing strong safety standards
  • Community resilience: Designing adaptable spaces to support communities in changing situations

These KPIs are often aligned with certifications such as LEED, BREEAM, Green Star and the WELL Building Standard. For instance, our involvement in San Francisco’s first WELL-certified building helped balance daylight access, air quality and energy use, setting a new benchmark for workplace design.

ISO and the GHG Protocol have formed a strategic partnership to create unified global standards for greenhouse gas emissions reporting. This initiative promises to standardise metrics like embodied carbon, especially impacting sustainability in structural design.

Regional factors play a major role in shaping sustainability strategies too. Climate, seismic activity and local regulations all influence design choices. This philosophy shaped our approach to NZ1 in Masdar City, UAE — a net-zero energy building designed to endure harsh desert conditions while remaining efficient and comfortable.

Risk and resilience are essential in seismic zones. Structures must not only withstand earthquakes but also continue functioning after one occurs. The goal is not to rebuild after an earthquake but to maintain functionality with minimal retrofitting. Key concepts include:

  • Fragility curves: Graphs that show how likely a building is to be damaged during an earthquake, based on its design and materials
  • Redundancy: Incorporating backup systems and alternative load paths so that if one part fails, others can take over and the structure remains safe
  • Post-disaster functionality: The ability of a building to keep operating and provide essential services after an earthquake
  • Operational continuity: Making sure that critical systems like power, water and emergency services stay available during and after a disaster
  • Resilience planning: Preparing for hazards by including strategies such as rapid repairs, flexible spaces and strong infrastructure to minimise downtime and support quick recovery

These measures prepare communities so that they can maintain vital services and recover faster after a seismic event.

Digital tools are transforming how sustainability is analysed. BIM-integrated platforms, energy simulation software and lifecycle assessment tools allow teams to model performance, test scenarios and make informed decisions. These technologies are becoming standard practice, helping designers quantify impact and optimise outcomes.

Designing sustainable structures in action

Our global portfolio showcases how sustainable structures can be tailored to different contexts and goals. Here are two standout examples:
NZ1 in Masdar City

NZ1 is the UAE’s first net-zero energy commercial building, generating all its energy on-site through photovoltaic panels. Designed for Masdar City’s demanding desert climate, it features an airtight envelope with high-performance insulation, and passive strategies like low window-to-façade ratios and strategic shading to minimise energy use.

Our holistic design, delivered on a tight COP28 timeline, used a modular grid and standardised materials, diverting 90 percent of construction waste from landfill. Real-time monitoring displays energy, water and waste data, empowering tenants to engage actively with sustainability goals.

WELL-certified office in San Francisco

This WELL-certified office in San Francisco’s SoMa district is Northern California’s first of its kind, also achieving LEED Gold and a US Resiliency Council Gold rating for seismic safety. The office design merged industrial heritage with modern sustainability, featuring oxidised metal panels, flexible floor plates, seismic moment frames and wellness amenities like a private deck, rooftop spaces, bike storage and showers.

Sustainable strategies include full-façade windows for daylighting and adaptable layouts for future needs. When the client requested more windows mid-build, we found code-compliant solutions without project delays, setting a new standard for workplace wellness, seismic resilience and urban sustainability.

Sustainability is the cornerstone of future structural design

Designing sustainable structures means making thoughtful choices that support environmental, social and economic goals. It starts with clear principles and early collaboration, continues through rigorous evaluation and regional adaptation, and is accelerated by digital innovation. When sustainability is embedded from the beginning, it leads to buildings that are efficient and resilient.

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Want to go deeper?

Designing resilient, low‑carbon structures starts with informed decision‑making. Explore how global trends, emerging technologies and shifting community expectations are reshaping the built environment.
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