CONSTRUCTION

CONSTRUCTION

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WHAT ARE THE KEY TAKEAWAYS?

  • Sustainable construction in 2026 will focus on scaling bio‑based materials, embedding circularity through reuse and design‑for‑disassembly, and prioritising healthier, low‑toxicity products.
  • Real‑time, data‑driven decision support – including AI‑assisted lifecycle assessments, machine‑readable EPDs, carbon‑cost integration, and resilient design – will replace static reporting and strengthen both performance and risk management
  • New low‑carbon solutions such as clay-based concrete, AI‑powered project‑delay prediction, and other material and process innovations will help the sector reduce emissions while improving reliability and project delivery

© JU.STOCKER / Adobe Stock

What are the experts saying?

About The Alliance for Sustainable Building Products

The Alliance for Sustainable Building Products (ASBP) is a UK-based membership organisation accelerating the transition to low-carbon, circular, and healthy construction materials. It brings together manufacturers, suppliers, designers, contractors, clients, and policymakers to support better material choices across the built environment. ASBP works to raise confidence in sustainable products through evidence-based guidance, technical insight, and knowledge sharing, while also influencing policy and standards. Its focus is on reducing embodied carbon, improving resource efficiency, increasing transparency, and supporting the wider use of bio-based, circular, and responsibly sourced materials across both new build and retrofit.


Richard Broad, Director, The Alliance for Sustainable Building Products

What themes will be important in sustainable construction innovation in 2026?

Scaling up bio-based materials

In 2026, we expect to see bio-based materials continue to gravitate to the mainstream, as developers and clients look for credible ways to reduce embodied carbon. Timber construction, bio-based insulations, and agricultural-waste composites are increasingly being supported by robust performance data and a rapidly maturing supply chain. The focus now is shifting from proving feasibility to rolling out at scale, in turn helping to reduce cost premiums and embedding these materials into standard specifications for both new build and retrofit.

Circularity and resource efficiency

Interest in the circular economy is increasing rapidly, and we hope to see circularity become central to construction practice, with materials designed for reuse, repair, and recovery as a matter of course. Material passports, take-back schemes, and design for disassembly are becoming practical requirements rather than aspirations. Reused and reclaimed materials, supported by local circular construction hubs and digital tracking, are increasingly viable, with offsite and panelised systems helping reduce waste and enable future adaptability.

Health and wellbeing as a core driver

Health and wellbeing has been a core focus for ASBP since our launch and we host our 10th annual Healthy Buildings Conference on 28th February. Growing awareness of indoor air quality and long-term occupant health is driving demand for low-emission, non-toxic materials with transparent ingredient disclosure. Innovation increasingly considers how material choices affect people as well as carbon, strengthening the case for healthier buildings across homes, workplaces, and public infrastructure.

Outlook for 2026

As the sector moves closer to 2030 climate targets, 2026 will be defined by a shift from ambition to delivery. Innovations will be judged on their ability to scale, remain affordable, and work within real-world constraints. Solutions that reduce carbon, support circularity, and improve health, while fitting within existing procurement and construction models, will shape progress. Sustainable materials are no longer optional; they are essential.

About 2050 Materials

2050 Materials is a platform for sustainable, transparent building materials. Its web application hosts the largest database of construction-material sustainability data, helping teams design and build in line with climate targets. Architects, designers, and quantity surveyors can specify and compare products, run Whole Life Cycle Assessments (WLCAs), and check alignment with industry benchmarks. The organisation's API exposes a vast, classified dataset so digital teams can power internal tools and quantify embodied carbon alongside cost. By registering, users can tap into over 176,000 products sourced from environmental product declarations (EPDs) and certifications, easy unit conversions, and an embodied-carbon optimiser, turning material data into reliable, everyday climate action.


Phanos Hadjikyriakou, Co-Founder and CEO, 2050 Materials

What themes will be important in sustainable construction innovation in 2026?

2026 will be the year sustainability moves from reporting to real-time decision support.

We see six themes leading the shift.

1. AI-assisted lifecycle assessment (LCA) workflows. Transformers and LLMs will clean, classify, and reconcile EPD data, then recommend lower-carbon alternatives with explainable assumptions. Tedious carbon work becomes faster, auditable, and repeatable.

2. Digitised EPDs at scale. Structured, machine-readable declarations delivered via APIs, not PDFs, will enable instant comparisons, automated submittals, and robust version control across building information modelling (BIM) and cost systems.

3. Whole-life performance, not just a number. Whole-life carbon assessment (WLCA) will anchor design trade-offs, linking embodied and operational impacts, durability, and circularity. Benchmarks will tighten, and alignment checks will happen at every stage gate.

4. Carbon-cost integration. Quantity surveyors will expand rate libraries with verified carbon factors, pricing low-carbon options into early estimates so greener choices survive value engineering.

5. Circular and verified supply chains. Reuse, take-back schemes, and secondary materials will scale with provenance tracking, quality grading, and schedule-aware availability.

6. Grid-aware manufacturing and procurement. When and where materials are produced will matter – hourly grid mixes and cleaner routes will shape procurement windows and specifications.

How we’re enabling this at 2050 Materials:

  • Platform with the largest sustainability dataset for construction materials
  • Specification and comparison tools for architects and QS teams
  • WLCA and carbon reporting, including an embodied-carbon optimiser and easy unit conversion
  • API and database exposing a vast, tagged dataset to power internal tools and quantify carbon alongside cost
  • Active AI exploration to improve LCA data quality and decision support

About the GBI

The Green Building Initiative (GBI) is an international nonprofit organisation and American National Standards Institute (ANSI) Accredited Standards Developer dedicated to reducing climate impacts by improving the built environment. Founded in 2004, the organisation is the global provider of the Green Globes, Ascent, Journey to Net Zero, and federal Guiding Principles Compliance building assessment and certification programmes. It has certified nearly 1 billion square feet of commercial real estate to date. GBI also issues professional credentials, including the Green Globes Professional (GGP) and Guiding Principles Compliance Professional (GPCP) programmes.


Sumayyah Theron, Board Chair, The Green Building Initiative (GBI)

What themes will be important in sustainable construction innovation in 2026?

In 2026, sustainable construction is no longer a peripheral ambition or a marketing narrative. It has become a core operational framework shaping how projects are conceived, delivered, and evaluated. The industry is undergoing a fundamental shift in which sustainability is embedded into decision-making, risk management, and long-term value creation across the built environment.

One of the most significant transformations driving this shift is the strategic use of data. In response to increasing demands from stakeholders, regulators, and investors, procurement and construction teams are leveraging advanced analytics to optimise energy systems, evaluate EPDs, conduct lifecycle assessments, and apply double materiality models. These tools enable organisations to quantify both environmental and financial impacts, aligning sustainability outcomes directly with business performance. As a result, sustainability is no longer viewed as a cost centre, but as a mechanism to reduce construction and operational risk while delivering measurable, long-term value.

At the same time, the industry is elevating the importance of climate adaptation and nature-based solutions. Future-proofing buildings enhances resilience, extends asset life, and protects investments over time. Design strategies increasingly anticipate climate impacts by allowing water to flow under, around, or through structures, reducing flood risk and minimising damage during extreme weather events. This reflects a broader mindset shift from reactive risk mitigation toward resilience as a source of competitive advantage.

To meet aggressive schedules and tightening budgets, construction in 2026 is also embracing prefabrication at scale. Offsite manufacturing improves quality control, reduces material waste, and shortens project timelines. Rising costs, supply-chain volatility, and sustainability commitments have sharpened the industry’s focus on speed, precision, and efficient material use.

Together, these shifts signal a more mature and integrated approach to sustainable construction, one in which data-driven decision-making, resilience, and industrialised methods are essential to building responsibly, competitively, and at scale.

About Built by Nature

Built by Nature is a not-for-profit organisation with a mission to lead a global transformation of the built environment by accelerating the responsible use of timber and biobased materials for the benefit of climate, nature, and people. It recently co-developed new Principles for Responsible Timber Construction with international industry stakeholders, policymakers, and NGOs, that have been endorsed by over 350 organisations – including 15 national governments. The organisation’s six European networks unite more than 150 demand-side organisations, creating market pull for biobased solutions. Through funding, partnerships, and knowledge-sharing it champions systemic change, so buildings shift from sources of emissions to stores of carbon.


Paul King, CEO, Built by Nature

What themes will be important in sustainable construction innovation in 2026?

Many of us start the year with ambitious predictions. However, the pace of change in the built environment is typically slow. As such, 2026 will be about staying focused on the long game: reshaping the entire system that informs the way we build – the behaviours, processes, and structures in industry, policy, and finance – making lasting and transformative change possible.

The construction industry has been locked into patterns that drive emissions and resource depletion for decades. The built environment accounts for 40 per cent of global greenhouse gases and 50 per cent of natural resources consumed every year. Materials that once offered clear advantages still largely provide reliability and safety. But today, we face new priorities: cutting carbon, restoring nature, and meeting human needs. That means broadening our materials palette and rewiring the system – markets, supply chains, and, hardest of all, mindsets.

At Built by Nature we are seeing the first signs of this shift. Networks of frontrunners are forming. Governments are recognising the benefits of responsible timber construction. Investors are beginning to see biobased materials not as alternatives but as competitive advantage.

Regulatory misalignment remains a barrier. Government policies, building codes, and standards send mixed messages. Turning political commitments in favour of accelerating the responsible use of timber in construction into regulatory reality, as a natural carbon capture and storage solution, will be critical in mainstreaming biobased materials in 2026.

Last year, Built by Nature ran a global prize attracting nearly 400 entries showcasing the art of the possible: outstanding timber buildings with standards that can be universally applied. What we hope to see in the next 12 months: more buildings that demonstrate these principles; clearer, harmonised regulation that enables scale; and deeper collaboration to turn a patchwork of progress into a fabric where biobased building is woven in everywhere.

Three Innovations to keep an eye on

INNOVATION ONE:

Could clay-based concrete unlock 3D-printed construction?

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Conventional concrete cures slowly, often taking weeks to reach structural strength. This poses particular challenges for 3D-printed construction, which relies on speed and automation. Researchers at Oregon State University have now developed a fast-curing, clay-based concrete alternative designed specifically for additive manufacturing.

When extruded from a 3D printer, the new material cures straight away, hardening as a result of an acrylamide-based binding agent that undergoes a chemical reaction known as frontal polymerisation. This allows the printed structure to set immediately, making it possible to form unsupported features such as door and window openings or roof overhangs during printing.

Unlike conventional concrete, the material is largely made from soil combined with hemp fibres, sand, and biochar.”

The technology also addresses resource constraints: “The new material can be autonomously 3D printed, ultimately helping to aid in solving the global housing crisis, which is primarily caused by limited access to skilled labour,” explained Devin Roach, assistant professor of mechanical engineering at Oregon State University, when talking to Springwise.

Tests show the material achieves a buildable strength of around three megapascals immediately after printing and exceeds 17 megapascals – the typical requirement for residential structural concrete – within three days. And, unlike conventional concrete, the material is largely made from soil combined with hemp fibres, sand, and biochar, which is a carbon-rich substance produced from biomass under low-oxygen conditions. This significantly reduces its environmental footprint compared with cement-based concrete.


INNOVATION TWO:

Can AI spot project delays before they happen?

Large construction projects face a sobering reality: recent analyses show average cost overruns of 79 per cent and schedule delays of 52 per cent compared with initial plans. Poor visibility into schedules, fragmented communication across trades, and inaccurate early planning all contribute to this pattern. With hyperscaling projects for critical infrastructure crucial to our modern society, something needs to change.

To tackle this, San Jose-based Planera has developed a visual collaborative scheduling platform. The solution centres on a Critical Path Method approach that lets project managers, field supervisors, and schedulers work within the same live schedule, rather than inefficiently emailing spreadsheets or relying on separate tools. Teams can see task dependencies, adjust sequences through drag-and-drop interfaces, and run resource analyses across subcontractors in real time.

The software is designed to be accessible to site teams who aren’t schedulers by trade, reducing friction between planning and execution.”

© Mikhail Vorobev / Adobe Stock

The company has recently also introduced AI features that scan schedules to flag potential delays before they cascade, suggesting opportunities to compress timelines without overwhelming crews. A key focus for Planera is one of the fastest-growing segments in construction: data centres. For these projects, every day of delay can carry an opportunity cost of roughly $500,000 dollars, making the early warning Planera provides essential.

The software is designed to be accessible to site teams who aren’t schedulers by trade, reducing friction between planning and execution. Planera has also assembled a dedicated service team with deep data centre expertise to support customers navigating the unique demands of hyperscale and AI infrastructure builds.​

INNOVATION THREE:

Could transparent insulation deliver more energy-efficient homes?

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Physicists at the University of Colorado Boulder have developed a new material for insulating windows that works a bit like a hi-tech version of bubble wrap.

The material, called Mesoporous Optically Clear Heat Insulator (MOCHI), is a silicone gel that traps air through a network of tiny pores or bubbles. These pores are many times thinner than the width of a human hair, making them exceptionally good at blocking heat. Unlike conventional aerogels, MOCHI is almost completely transparent, due to a lack of light scattering.

To produce the gel, the team mixed surfactants (molecules with both water-loving heads and oil-loving ends) into a solution with silicone. The surfactants clump together to form threads, and the silicone sticks to the outside of the threads. In a series of steps, the researchers then replace the clumps of surfactant with air, leaving the silicone surrounding a network of incredibly small, air-filled pores.

The end result is a gel that is more than 90 per cent air by volume and has a lower thermal conductivity than still air, as well as an average visible-range transaprency above 99 per cent. The material’s transparency also allows it to be used in solar thermal energy generating panels.