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School technology block built using MMC and efficient structural design

A secondary school building delivered using offsite construction and SIPs to reduce disruption, accelerate delivery, and support long-term energy performance.

School technology block built using MMC and efficient structural design
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SIPs construction

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MMC approach

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Reduced site impact

We knew early on that a traditional approach wouldn’t work for this site - limited access and a live school environment meant we had to think differently. Using SIPs and an MMC approach allowed us to cut down on time, waste, and disruption, while still delivering a high-performing, energy-efficient structure. It’s a good example of sustainable design meeting real-world constraints.

Mark Weston

Structural Engineer

School technology block built using MMC and efficient structural design

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SIPs construction

The Reuse Engineering Forum (REF) Strategy (1)_edited.png

MMC approach

The Reuse Engineering Forum (REF) Strategy (1)_edited.png

Reduced site impact

Engineer:

School technology block built using MMC and efficient structural design

This new Science, Design Technology, and Food Technology block demonstrates how modern construction methods can deliver sustainable, efficient buildings on constrained education sites.


JMS Engineers provided structural and civil design for the full scheme - including foundations, superstructure, and drainage - while coordinating the integration of Structural Insulated Panels (SIPs) as part of a Modern Methods of Construction (MMC) approach.


Offsite fabrication and rapid on-site assembly reduced disruption to the live school environment and supported programme certainty. The SIPs also contributed to improved airtightness and thermal performance, supporting long-term energy efficiency in use.


Through smart coordination and low-disruption construction, this project reflects REFEA’s approach to delivering practical, sustainable outcomes in education environments.

Focus Areas

REFEA’s work is guided by six core principles that drive sustainable structural and civil engineering - turning practical design decisions into low-carbon outcomes across East Anglia.

Reuse First

Prioritising existing structures and materials to reduce waste and embodied carbon.

Image by D R

Early Design Collaboration

Involving engineers early to embed sustainability from concept to construction.

Brick Construction

Low-Carbon Materials

Specifying materials with lower embodied carbon and designing for material efficiency.

Image by Daniel Lorentzen

Circular Design Thinking

Designing for adaptability, longevity, and future reuse from the outset.

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Integrated Drainage Solutions

Embedding SuDS into civil engineering for sustainable, climate-resilient developments.

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Practical Sustainability

Delivering buildable, cost-conscious solutions that meet real environmental targets.

Image by Noah Buscher

Sustainable
structures

Modern Passive Semi-Detached Houses_ Innovations in Real Estate Construction Adhering to E

east anglia

As structural engineers, we have a unique opportunity to influence how the built environment responds to the climate crisis. Reuse isn't just about saving materials - it's about rethinking value, preserving what works, and designing with long-term resilience in mind. Through REFEA, we hope to make reuse a more practical and achievable option on projects across East Anglia by sharing knowledge, highlighting viable approaches, and supporting early-stage design decisions.

Mark Weston

Structural Engineer, JMS Engineers

Knowledge is key to sustainable change. Explore our latest insights and technical resources:

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Path to a Low-Carbon Built Environment

The built environment contributes nearly 40% of global carbon emissions, much of it through construction and materials. In East Anglia, reducing embodied carbon is critical to meeting sustainability goals. By reusing structures, designing efficiently, and integrating low-impact civil solutions, we can reshape how the region builds - and lead the way towards a net zero future.

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