Timber construction is gaining global momentum. Explore what is driving this shift and what engineering and construction teams should consider before adopting timber workflows.
Timber construction is appearing in more project conversations, design strategies, public-sector plans, and sustainability discussions. For some companies, it starts with a client asking about lower-carbon materials. For others, it comes through a project brief, a housing challenge, a new regulation, or a growing interest in off-site construction.
The interest is real, but the most useful question is no longer simply whether timber is becoming more popular.
A better question is: are construction teams ready to deliver timber projects well?
Timber can definitely support more sustainable and industrialized building methods, but successful adoption depends on much more than material choice. It's essential to ask teams to think earlier, coordinate better, and work with more reliable project information.
A major reason timber is rising is due to its connection to industrialized construction.
Engineered timber elements are often manufactured off-site, transported to site, and assembled in a defined sequence. That can support faster installation, cleaner sites, and better quality control, while it also changes the way teams need to work.
Decisions that might once have been resolved later in the process often need to be made earlier. Openings, connections, tolerances, fire strategy, acoustic performance, transport, lifting, and assembly sequencing all need attention before fabrication starts.
Therefore, timber becomes particularly relevant for BIM managers, engineers, fabricators, and technical leads. The value of timber depends heavily on coordination, so when the process is clear, timber can help teams build with more predictability. On the contrary, when information is fragmented, small mistakes can quickly become expensive.
For example, the UK’s Timber in Construction Roadmap 2025 reflects this broader shift: it links timber to low-carbon construction, modern methods of construction, housing delivery, innovation, skills, supply-chain confidence, and safer use of timber in buildings. [4]
For structural engineers, timber creates an opportunity to expand design capability: understanding timber means being able to compare structural systems more confidently and advise clients with more clarity.
For BIM managers and technical leads, timber puts information quality under the spotlight: the model, drawings, quantities, openings, interfaces, and revision control all need to be reliable enough to support downstream decisions.
For decision-makers, timber is a capability question: it involves people, workflows, suppliers, software, approvals, and risk management. A successful timber strategy depends on knowing where the organization is today and what needs to improve before projects become more complex.
Consequently, companies should start with education before implementation — before deciding how far to go with timber, teams need a clearer view of the opportunities, limitations, and workflow changes involved.
Timber construction is rising for good reasons, specially because it responds to important pressures in the construction industry, such as carbon reduction, resource efficiency, industrialized delivery, and the need for more predictable project outcomes.
At the same time, timber asks for preparation, and the teams that benefit most will be the ones that understand the delivery model behind it: earlier coordination, stronger technical evidence, reliable information, and a closer connection between design, fabrication, and assembly.
If your team is exploring timber construction, Construsoft can help you understand what this means in practice. With solutions such as Tekla Structures, engineering and construction teams can create accurate, information-rich models that support timber and hybrid structures, improve coordination, and help connect design decisions with fabrication and assembly needs.
Sources & Further reading
[1] UNEP / GlobalABC — Global Status Report for Buildings and Construction 2025–2026.
Used for the global context on buildings and construction, including the sector’s share of global GDP, employment, CO₂ emissions, and material extraction.
URL: https://globalabc.org/resources/publications/global-status-report-buildings-and-construction-2025-2026
[2] European Commission — Construction sector.
Used for the European construction sector context, including the figures on direct jobs and contribution to EU GDP.
URL: https://single-market-economy.ec.europa.eu/sectors/construction_en
[3] European Commission — Global warming potential of buildings.
Used for the revised Energy Performance of Buildings Directive context, including the requirement to calculate and disclose life-cycle Global Warming Potential for large new buildings from 2028 and all new buildings from 2030.
URL: https://energy.ec.europa.eu/topics/energy-efficiency/energy-performance-buildings/energy-performance-buildings-directive/global-warming-potential-buildings_en
[4] UK Government — Timber in Construction Roadmap 2025.
Used for the policy context around timber construction, modern methods of construction, whole-life carbon data, skills, supply, fire and durability, insurer confidence, and innovation.
URL: https://www.gov.uk/government/publications/timber-in-construction-roadmap-2025/timber-in-construction-roadmap-2025