London university specializing in cryogenic energy storage, wireless body sensors, and bio-based ground improvement for sustainable infrastructure.
LSBU is a London-based university with applied research strengths in energy storage, wireless body-area networks, and geotechnical engineering. They develop practical solutions spanning cryogenic energy storage for cold-chain logistics, UWB wearable sensors for health monitoring, and bio-based ground improvement techniques for transport infrastructure. Their work consistently bridges the gap between lab research and industrial deployment, with a strong orientation toward sustainability — reducing emissions in refrigeration, recycling plastics through ionic solvents, and enabling hydrogen-powered aviation.
CryoHub (coordinator, largest project at EUR 2.4M) developed cryogenic energy storage at refrigerated warehouses; ENOUGH extended this into food transport GHG reduction; ENABLEH2 explored cryogenic hydrogen for aviation.
ROVER focuses on verified wireless body-centric transmission and localization; WEBOING (coordinator) developed UWB wearable apparatus for bone fracture imaging; SONNET addressed 5G self-organizing networks.
BioRail (coordinator) pioneered biocementation for railway earthworks; NOBILIS (coordinator) developed biobased low-carbon infrastructure solutions.
WInspector developed robotic shearography for wind turbine blades; TankRob addressed petrochemical storage tank inspection; RiserSure assessed flexible risers for offshore installations.
SolarSharc (coordinator) developed durable self-cleaning coatings for solar panels to improve PV energy generation.
ISOPREP used ionic solvents for polypropylene recycling with low emissions; NOBILIS developed biobased infrastructure materials.
In the early H2020 period (2015–2018), LSBU focused on energy systems — cryogenic storage (CryoHub), solar coatings (SolarSharc), and 5G wireless networks (SONNET) — alongside industrial inspection tools for wind, oil/gas, and petrochemical sectors. From 2019 onward, a clear pivot emerged toward bio-based and sustainable infrastructure: biocementation for railways (BioRail), biobased construction materials (NOBILIS), polypropylene recycling (ISOPREP), and food-chain emissions reduction (ENOUGH). The university has been steadily moving from energy hardware toward green materials and decarbonized infrastructure.
LSBU is building a distinct niche at the intersection of biotechnology and civil infrastructure, making them a strong partner for green construction and transport decarbonization projects post-2025.
LSBU plays both roles effectively — coordinating 6 of 18 projects (33%), which is high for a mid-sized university. Their coordinated projects tend to be smaller MSCA-RISE exchanges and focused Innovation Actions, while they join larger consortia as a specialist contributor. With 111 unique partners across 25 countries, they build wide networks rather than repeating the same partnerships, suggesting openness to new collaborators and flexibility in consortium formation.
LSBU has collaborated with 111 distinct partners across 25 countries, indicating a broad European network without heavy concentration in any single region. Their coordination of MSCA-RISE projects (mobility schemes) further extends their reach to non-EU research institutions.
LSBU occupies an unusual niche combining cryogenic energy expertise with bio-based geotechnical engineering — a combination rarely found in a single institution. Their applied research orientation means outputs are closer to market than typical university projects, evidenced by their heavy use of Innovation Actions (8 of 18 projects). For consortium builders, LSBU offers a UK partner with genuine interdisciplinary range — from wearable health sensors to railway biocementation — and a track record of coordinating effectively at modest budgets.
