German technical university strong in supramolecular chemistry, process optimization, ERC-funded directed evolution, and urban data analytics.
TU Dortmund is a German technical university with strong dual strengths in fundamental chemistry/biology and industrial process optimization. Their chemistry groups work on molecular self-assembly, directed evolution, epigenetic engineering, and synthetic biology — supported by an impressive 10 ERC grants. In parallel, their engineering departments contribute expertise in mathematical optimization, process intensification, and computational design for manufacturing applications like turbomachinery and chemical plants. They also maintain an active research line in digital technologies, urban development, and data-driven smart city solutions.
RAMSES (coordination cages), MOCCA (metal-organic cages for catalysis), EPICODE (epigenetic cytosine code), hyControl (molecular spintronics), and RiboLife (RNA-based synthetic cells) — all ERC-funded and coordinator-led.
CoPro (coordinator, process industry coordination), CONSENS (flexible intensified processes), PRONTO (process network optimization), COCOP, ADREM (methane valorisation), and SIMPLIFY (sonication/microwave processing).
MOTOR (multi-objective fluid machine design using isogeometric analysis), MINOA (mixed-integer nonlinear optimization), oCPS (cyber-physical system optimization), and OCCAM (causal inference methods).
AutoMat (automotive big data), VaVeL (urban sensor data), AutoDrive (automated driving components), U-TURN (urban transportation), and iSCAPE (smart air pollution control).
RE-CITY (shrinking cities revitalisation), SISCODE (co-design for innovation policy), SIC (social innovation community), and I-LINC (youth employability platform).
EPICODE (programmable epigenetic readers/writers via directed evolution) and RiboLife (RNA self-replication and synthetic cells) represent a frontier biology capability.
In the early H2020 period (2015–2018), TU Dortmund focused heavily on industrial engineering topics — automated design optimization for turbomachinery (MOTOR), process control (CONSENS, CoPro), and ICT platforms for mobility and urban sensing (AutoMat, VaVeL). From 2018 onward, a visible shift occurred toward social innovation and urban sustainability themes (RE-CITY on shrinking cities, SISCODE on co-design, iSCAPE on air quality), while simultaneously deepening their fundamental science portfolio with ambitious ERC projects in synthetic biology and origin-of-life research (RiboLife, 2019). The engineering-to-society pivot in applied work, combined with increasingly bold fundamental science bets, marks a university broadening its societal relevance beyond traditional technical domains.
TU Dortmund is moving toward societal-impact research (urban regeneration, co-design, sustainability) while maintaining world-class fundamental chemistry and biology — expect future projects bridging green chemistry with urban or environmental applications.
TU Dortmund operates primarily as a strong partner (37 of 53 projects), but coordinates a meaningful share (14 projects, 26%), especially their high-value ERC grants. With 557 unique consortium partners across 39 countries, they function as a well-connected hub rather than a repeat-partner institution — they bring broad European reach to any consortium. Their coordination tends to concentrate in fundamental research (ERC), while applied and innovation projects see them as a trusted contributing partner.
With 557 unique partners across 39 countries, TU Dortmund has one of the broader collaboration networks among German technical universities in H2020. Their partnerships span nearly all of Europe with no narrow geographic clustering, making them a strong connector for pan-European consortia.
TU Dortmund's distinguishing feature is the combination of 10 ERC grants (5 Starting + 5 Consolidator) with deep applied process engineering — few German technical universities match this balance of fundamental excellence and industrial applicability. Their chemistry groups (supramolecular, synthetic biology, molecular spintronics) operate at genuine research frontiers while their engineering and optimization teams maintain strong ties to manufacturing and process industry applications. For consortium builders, this means a single partner that can contribute both high-profile fundamental science credibility and practical engineering implementation capacity.
