HOCHSCHULE BREMEN

Their core work

Hochschule Bremen (Bremen University of Applied Sciences) is a German applied sciences university contributing engineering expertise to European transport and space projects. Their work spans maritime engineering — particularly ship hull performance and bio-inspired surface technologies for fuel-efficient shipping — and space launch vehicle technologies. As a practice-oriented institution, they bridge academic research with industrial application in naval architecture and aerospace propulsion.

What they specialise in

How they've shifted over time

Hochschule Bremen entered H2020 through maritime transport, contributing to ship design optimization (HOLISHIP, 2016). They then deepened their maritime work with a strong biomimetics angle — applying nature-inspired air-lubrication coatings to ship hulls (AIRCOAT, 2018). Most recently, they expanded into space access and reusable launch vehicles (ASCenSIon, 2020), signaling a broadening from maritime to aerospace engineering.

They are diversifying from maritime-only engineering into aerospace, suggesting growing ambitions in transport systems broadly — a university worth watching for cross-domain transport R&D.

How they like to work

Hochschule Bremen operates exclusively as a consortium participant, never coordinating — typical for a mid-sized applied sciences university contributing specialized engineering expertise. With 61 unique partners across 14 countries from just 3 projects, they work in large European consortia and appear comfortable integrating into multi-partner frameworks. This makes them a low-risk, experienced partner who knows how to deliver within complex EU project structures.

Despite only 3 projects, they have built a broad network of 61 partners across 14 countries, reflecting participation in large consortia. Their geographic reach is firmly pan-European with no obvious regional concentration.

What sets them apart

Their standout capability is biomimetic surface engineering for maritime applications — specifically applying the Salvinia effect (plant-inspired air-trapping surfaces) to ship hulls for drag reduction. This is a niche that few universities combine with broader ship design and lifecycle expertise. The recent move into space propulsion suggests they can transfer surface and materials engineering knowledge across transport domains.

Highlights from their portfolio

• AIRCOAT
  Largest project by funding (EUR 648K), with a distinctive biomimicry approach — using the Salvinia effect to create air-lubrication ship coatings that reduce friction and fuel consumption.
• ASCenSIon
  Marks a strategic pivot from maritime to space, focusing on reusable launch vehicles and multi-satellite deployment — a surprising expansion for a maritime-focused group.