Sustainable Hybrid Structures

On response to the global push for sustainability, the field of structural design is undergoing a transformative shift toward integrating environmental responsibility and resource efficiency into engineering practices. Despite significant advances in sustainable materials, current engineering practices often lack comprehensive integration of sustainability across design, manufacturing, and end-of-life stages.

This project tackles these gaps through interdisciplinary research that combines structural and materials engineering. This project develops pioneering methods for innovative hybrid structures that integrate steel, fiber-reinforced composites, and other advanced materials, offering a promising solution for achieving lightweight, high-performance, and sustainable engineering solutions. These structures utilize the unique properties of each constituent material to maximize 
strength, reduce weight, and improve longevity, while addressing end-of-life considerations such as recycling and reusability.

The project's key focus areas include sustainability-driven structural optimization, comprehensive performance evaluation under diverse environmental conditions, advanced fire-resistance solutions, bio-composite systems, and the development of scalable, energy-efficient manufacturing processes. The project targets industries such as marine, transport, and heavy machinery. Five demonstrators will validate the theoretical developments, enabling practical applications and industrial scalability. Through a structured work package framework, the project will deliver a new scientific basis for designing next-generation hybrid structures, fostering innovations that are both structurally robust and environmentally sustainable.

Tampere University’s research covers composite materials and fire testing methods for advanced materials in this project. The research applies experimental and numerical methods from modelling to simulations.

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