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Roger Needham Building

Cambridge, UK

Maximising the value of existing assets through intelligent, low carbon engineering sits at the heart of º£½ÇÊÓƵ’s work on the Roger Needham Building. For the University of Cambridge, this project transforms an underperforming facility into a high quality, flexible environment that supports world class research, teaching and collaboration.

Located on the University’s Cambridge West Innovation District, the Roger Needham Building forms part of a long term strategy to consolidate all the Divisions of the Department of Engineering (the University’s largest academic department) in a single, coherent academic hub at Cambridge West. Originally constructed around 2000 as a computer research facility funded by Microsoft, the building has since been used by the University Information Service.

º£½ÇÊÓƵ is supporting an ambitious refurbishment that repositions the building as the future home for Engineering. Working alongside Burwell Architects, the team is delivering multidisciplinary services including MEP, sustainability, fire engineering, acoustics and security. The scheme targets BREEAM Excellent and aligns with the University’s principles, improving space efficiency, enabling interdisciplinary collaboration and enhancing environmental performance.

The design introduces new laboratories, teaching and research spaces and a central forum created by enclosing the existing courtyard, providing a vibrant focal point for the engineering community. At its core, the project demonstrates how existing buildings can be adapted to meet evolving academic needs while reducing whole life carbon through key plant replacements and demand led systems.

Challenge

The project presented a set of interrelated challenges typical of estate-wide transformation projects, where existing assets must be brought up to modern standards without compromising value.

The starting point was a relatively modern but inefficient building. Although structurally sound, its mechanical and electrical systems had reached the end of their useful life after approximately 25 years of operation. These legacy systems are energy intensive and poorly aligned with current requirements, particularly in a building with significant cooling demands.

At the same time, the building’s spatial configuration no longer reflects how academic environments are used. Large areas are underoccupied, and the layout does not support the mix of research, teaching and administrative functions now required by the Department of Engineering. The University needs to intensify use of the space while maintaining flexibility for evolving programmes.

The integration of new laboratory facilities has added further complexity. While not heavy industrial labs, these spaces requires precise environmental control and resilient infrastructure, placing additional demands on building services design within an existing structural and spatial envelope.

Sustainability ambitions have also shaped the brief. The project is targeting BREEAM Excellent while working within the constraints of refurbishment rather than new build. Retaining the existing frame and facade offer clear carbon benefits, but limits the extent of envelope improvements and required careful optimisation of systems and performance.

Site wide considerations introduce additional pressures.  is evolving a community where entrepreneurs and businesses are co-located with world-leading academic departments. The building will to contribute to a stronger sense of place, encouraging interaction and enabling the University’s long term vision for a cohesive engineering cluster.

Finally, achieving meaningful decarbonisation within the constraints of the site poses technical challenges. For example, the orientation of the building limited the effectiveness of rooftop photovoltaics, requiring the team to prioritise other strategies to deliver carbon reductions.

Solution

º£½ÇÊÓƵ’s response centres on a comprehensive yet targeted refurbishment that retains the value of the existing structure while transforming performance, functionality and user experience.

The design approach has begun with a strip out and replacement of the building’s ageing MEP systems. By introducing entirely new, high efficiency plant and distribution networks, the team is able to significantly reduce energy demand while accommodating the varied requirements of offices, laboratories and shared spaces.

A key element of the solution is the introduction of zero carbon ready systems that enable heat and cooling to be shared across the building. This not only improves operational efficiency but also ensures compatibility with the University’s planned district energy networks, futureproofing the asset as campus infrastructure evolves.

The proposal maximises the benefit of refurbishment by retaining the structural frame and much of the facade, targeting improvements where they deliver the greatest impact. Selective upgrades to the building envelope will address performance gaps while maintaining a strong focus on whole life carbon and cost.

Internally, the building is being reconfigured to support contemporary patterns of use. Flexible workspaces, laboratories and teaching areas are organised around the new central Forum. This intervention will transform an underutilised void into a vibrant, shared space that encourages interaction, visibility and a sense of community.

The services strategy is closely integrated with this spatial redesign. Systems are carefully zoned and controlled to respond to different occupancy patterns and environmental requirements, ensuring both comfort and efficiency.

Acoustics, fire engineering and security are coordinated as part of a holistic design, supporting both day to day operation and specialist research activities. considerations are embedded throughout. In addition to pursuing BREEAM Excellent, the design supports reduced energy use, improved resource efficiency and lower embodied carbon through retention of existing elements. Where technologies such as photovoltaics are less effective due to site constraints, the team has focused investment on measures that deliver greater overall benefit.

Value

º£½ÇÊÓƵ’s work unlocks significant value by demonstrating how an existing building can be transformed into a high quality, future ready academic asset.

At a fundamental level, the project enables the University to make far better use of its estate. By intensifying occupancy and providing spaces that people actively want to use, the refurbished building supports consolidation of activities and reduces the need for additional new build. This approach not only improves operational efficiency but also contributes to wider carbon reduction goals.

The design will deliver a step change in performance. New systems will dramatically improve energy efficiency and environmental control, while being adaptable to future campus energy strategies. This will ensure that the building remains resilient and relevant over the long term.

Equally important is the enhancement of user experience. The creation of the central forum and the reconfiguration of internal spaces will provide a more engaging and collaborative environment, supporting the interdisciplinary working that is essential to modern engineering research and education.

From a sustainability perspective, the project demonstrates a pragmatic and impactful approach. Retaining the existing structure captures significant embodied carbon savings, while targeted interventions and efficient systems drive operational improvements. The result is a building that aligns with both institutional targets and broader environmental priorities.

Finally, the project will contribute to the ongoing evolution of the Cambridge Innovation District. By transforming an underperforming asset into a vibrant, well used facility, it will help to build density, identity and connectivity within the emerging engineering cluster.

Through a combination of technical expertise, strategic thinking and collaborative design, º£½ÇÊÓƵ is helping the University of Cambridge realise the full potential of its estate, delivering a facility that is efficient, flexible and ready to support the next generation of research and innovation.