The Cranfield Power & Propulsion Laboratories (Project 2)
MK43 0AL
- Sectors
- Commercial, Education
- Status
- In Progress
- Client
- Cranfield University
- Value
- £20m
- Delivery Team
- Anotherkind Architects, Chord Consult, KAM, G&T
- Our Services
- Civil, Structural, Flood Risk, Geotechnical, Geoenvironmental, Acoustics, Air Quality
Dice provided full engineering services for a new flagship two-storey laboratory and research building forming part of Cranfield University’s Hydrogen Fuel Aviation Research Project.
The facility supports advanced hydrogen research and provides flexible laboratory and collaboration spaces for academic and industry partners. A range of innovative structural and geoenvironmental engineering solutions were developed to support efficient delivery of the project while maximising flexibility, performance, and cost-effectiveness, such as:
Composite steel frame design enabling clear spans over 16m
A composite steel frame solution was adopted to achieve long, column-free spans exceeding 16 metres. This approach enhanced spatial flexibility, improved adaptability for future use, and reduced the need for internal load-bearing elements, supporting an open and efficient floorplate layout.
Cantilevered floor structures up to 4m to maximise internal flexibility
Significant cantilevers of up to 4 metres were incorporated into the structural design to optimise usable internal space and support architectural intent. The cantilever solution was carefully engineered to control deflections and maintain structural efficiency while maximising functional floor area.
Optimised foundation strategy using reinforced pad foundations instead of piles
A value-engineered foundation solution was developed through detailed ground assessment, allowing the use of reinforced pad foundations in place of more costly piled systems. This significantly reduced construction costs, simplified delivery, and improved programme certainty.
Ground investigation-led design to reduce construction cost and programme risk
The structural and geoenvironmental design was informed by a comprehensive ground investigation campaign, enabling a highly tailored foundation and earthworks strategy. This reduced uncertainty, mitigated geotechnical risk, and minimised the likelihood of design changes during construction.
Localised excavation and soil management within tree influence zones
Sensitive excavation strategies were implemented in areas affected by existing trees, ensuring compliance with arboricultural constraints while maintaining structural performance. Soil management techniques were adopted to protect root systems and preserve retained vegetation.
Structural coordination to support high-performance laboratory requirements
Close coordination with the design team ensured the structural frame accommodated stringent laboratory performance criteria, including vibration control, service integration, and load requirements. This resulted in a robust yet adaptable structure suitable for specialist technical use.