SciTransfer
Organization

UNIVERSITAET DER BUNDESWEHR MUENCHEN

German military university with deep expertise in graphene, FDSOI semiconductors, cybersecurity, and computational mechanics for additive manufacturing.

University research groupdigitalDE
H2020 projects
22
As coordinator
2
Total EC funding
€10.5M
Unique partners
486
What they do

Their core work

The University of the Bundeswehr Munich is Germany's military university, conducting dual-use research spanning advanced materials, cybersecurity, aerospace propulsion, and structural simulation. Their labs contribute significantly to the Graphene Flagship — Europe's largest research initiative on 2D materials — while also developing semiconductor technologies (FDSOI) for autonomous driving and 5G communications. They bring strong capabilities in computational mechanics, finite element and isogeometric analysis for 3D/4D printed structures, and operate ion beam research infrastructure used across disciplines from materials science to accelerator mass spectrometry.

Core expertise

What they specialise in

4 projects

Continuous involvement across all three Graphene Flagship Core Projects (GrapheneCore1-3) plus the 2D Experimental Pilot Line (2D-EPL), covering composites, sensors, electronics, and pilot manufacturing.

Semiconductor and RF technologies (FDSOI/RFSOI)primary
3 projects

REFERENCE, OCEAN12, and BEYOND5 all target silicon-on-insulator and FDSOI process technologies for autonomous driving, 5G, mmWave, and IoT applications.

Computational structural mechanics and additive manufacturingprimary
1 project

FDM^2 is their largest project (€2M ERC Consolidator Grant) focused on finite element and isogeometric analysis for 3D and 4D printed materials — a clear research priority.

2 projects

Coordinated CONCORDIA (€549K), a major EU cybersecurity competence network, and participated in EU-HYBNET on countering hybrid threats.

Optical and gas sensor systemssecondary
2 projects

ULISSES developed 2D-material photodetectors and mid-IR gas sensors on a chip; HOMER advanced optical metrology for aeroelastic research.

Space propulsion and satellite technologyemerging
2 projects

PJP (Plasma Jet Pack) developed vacuum arc thrusters for satellite constellations; TeSeR addressed spacecraft self-removal technology.

Evolution & trajectory

How they've shifted over time

Early focus
Materials, semiconductors, technology transfer
Recent focus
Applied sensors, cybersecurity, additive manufacturing

In their early H2020 phase (2015–2018), work centered on technology transfer, foundational graphene research, and RF semiconductor substrates — building core competencies in materials and electronics. From 2019 onward, the focus shifted toward applied sensor systems (gas sensors, optical metrology), cybersecurity coordination, space propulsion, and advanced computational modeling for additive manufacturing. The trajectory shows a clear move from upstream materials research toward applied, security-relevant, and dual-use technologies — consistent with a defense university expanding its civilian research partnerships.

Moving toward applied dual-use technologies — particularly computational modeling of 3D-printed structures, integrated sensor systems, and cybersecurity — making them an increasingly relevant partner for defense-adjacent and Industry 4.0 consortia.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European32 countries collaborated

Overwhelmingly a participant (20 of 22 projects), contributing specialist expertise to large consortia rather than leading them. Their two coordinator roles — CONCORDIA in cybersecurity and FDM^2 (an ERC grant) — show leadership capacity in specific niches. With 486 unique partners across 32 countries, they operate as a broad-network contributor rather than a tight-cluster institution, making them easy to integrate into new consortia.

An extensive European network of 486 unique consortium partners spanning 32 countries, reflecting participation in large flagship initiatives (Graphene Flagship alone connects them to hundreds of partners). Strong ties across Western and Central Europe with no narrow geographic concentration.

Why partner with them

What sets them apart

As Germany's military university, UniBw Munich occupies a rare position at the intersection of civilian research excellence and defense-relevant technology development. This dual mandate gives them unique access to security-sensitive research domains (cybersecurity, hybrid threats, resilient systems) while maintaining full participation in open EU research. Their combination of graphene materials expertise, FDSOI semiconductor know-how, and advanced structural simulation is unusual for a single institution and valuable for consortia bridging materials, electronics, and manufacturing.

Notable projects

Highlights from their portfolio

  • FDM^2
    Their largest project at €2M — an ERC Consolidator Grant for multiscale modeling of 3D/4D printed materials, signaling a top-tier individual researcher and institutional strength in computational mechanics.
  • CONCORDIA
    One of only two projects they coordinated, building a pan-European cybersecurity competence network — demonstrates leadership capability and trust from the EU in a strategically important domain.
  • GrapheneCore3
    Third consecutive phase of the Graphene Flagship (€980K), making them one of the sustained contributors to Europe's flagship 2D materials initiative across its entire lifecycle.
Cross-sector capabilities
securitytransportspacemanufacturing
Analysis note: Strong dataset with 22 projects and clear thematic clusters. The dual-use (civilian/defense) dimension is inferred from the institution's identity as a Bundeswehr university, which is publicly known and contextually important for partnership decisions. One project (2D-EPL) has no funding amount recorded.