The life sciences sector continues to evolve rapidly, fuelled in the UK by strong policy support, advances in biotechnology and artificial intelligence, and the expansion of STEM and health programmes. Against this backdrop, local authorities, developers, universities, and science park operators face the ongoing challenge of meeting demand for high‑quality research space both quickly and sustainably.

With urban land in short supply and new construction carrying a high carbon footprint, adaptive reuse - transforming existing buildings into laboratories - offers a faster, lower‑carbon, and economically strategic alternative to building new. Repurposing vacant offices, retail units, and business parks not only brings much‑needed laboratory space to market quickly, but also helps revitalise cities, diversify high streets and strengthen local economies - supporting more inclusive innovation ecosystems.

As companies look to strategically locate themselves closer to talent pools and urban amenities, vacant office and retail buildings in city centres are particularly well suited for lab conversion and create opportunities to engage the wider community by putting ‘science on show’. However, careful consideration must be given to safety, to ensure the surrounding area is not adversely affected. 

Not all types of laboratories are suitable for an inner-city location, and not every building lends itself to life‑science retrofit. Success depends on selecting an appropriate structure and resolving the key technical constraints that come with specialised laboratory use. Early assessment is key.

What to Consider When Converting Buildings into Labs

1. Servicing and logistics 
Life sciences facilities require secure delivery routes for chemicals and gases, safe storage areas, and efficient waste management. Buildings must be able to accommodate this without disturbing neighbouring communities.

2. Structural capacity
Many existing buildings were not originally designed to host heavy lab equipment. Floor loading, vibration control, and opportunities for reinforcement are critical early assessments before reuse can proceed.

3. Mechanical, Electrical & Plumbing (MEP) requirements
Labs need advanced ventilation, environmental control, and generous ceiling voids for services. Riser limitations, roof loading, and planning restrictions may require creative engineering solutions such as exposed services or compact mechanical plant.

4. Surrounding context
Noise, odours, and flue dispersion need to be carefully considered, and managed, in populated areas. Not all lab types - particularly those with hazardous processes - are appropriate for city centres.

5. Sustainability and material choices
Retrofits drastically reduce embodied carbon, but material selection must balance sustainability with cleanability, chemical resistance, and durability. 

Together, these considerations determine whether a building can be effectively repurposed. When they align, they create the foundation for successful adaptive reuse and enable existing structures to be transformed into high‑performing laboratory spaces. When an appropriate building is selected and design teams collaborate closely, retrofit projects can deliver substantial social and economic value, aligning with national priorities to strengthen R&D clusters, revitalise local economies, and advance sustainability goals.

If you’re exploring opportunities to convert existing assets into future‑ready life science facilities, our team can help you assess feasibility, unlock hidden potential, and deliver sustainable, high‑performing research environments.

To explore this approach in more depth, read Organised Innovation Spaces - an Innovation Area Development Partnership (IADP) publication - in which Head of Life Sciences Ross McWatt, with contributions from Associate Project Lead Amy Bourne, Project Leader Steve Jell, and Architects Annie Kwan and Joanne Macey, examines how converting existing buildings can provide a rapid and sustainable solution for the life sciences sector.