SciTransfer
Organization

TECHNION RESEARCH AND DEVELOPMENT FOUNDATION LTD

Technion's R&D foundation bridging biomedical imaging, life sciences, nanotechnology, and computational modelling across European research collaborations.

University research foundationhealthIL
H2020 projects
19
As coordinator
9
Total EC funding
€3.2M
Unique partners
76
What they do

Their core work

TRDF is the technology transfer and research commercialization arm of the Technion — Israel Institute of Technology, one of the world's leading science and engineering universities. It manages EU-funded research across an exceptionally broad range of disciplines, from biomedical imaging and cancer therapeutics to computational geometry, materials science, and synthetic biology. The foundation channels Technion's deep bench of researchers into collaborative European projects, primarily through Marie Skłodowska-Curie fellowships and ERC Proof of Concept grants that bridge fundamental research and early-stage application. Its H2020 portfolio reflects a university-wide capability rather than a single focused lab, spanning life sciences, nanotechnology, computer vision, and chemistry.

Core expertise

What they specialise in

4 projects

Projects OncoViroMRI (MRI-based cancer therapy monitoring), TheraSonix (ultrasonic tumor imaging), SNIFFPHONE (breath-based disease detection), and LuMaSense (lung nodule detection) form a consistent thread in medical diagnostics.

Cell and molecular biologyprimary
4 projects

GENESIS (cell-cell fusion mechanisms), RENOIR (muscle regeneration and cell identity), triloci-seq (triple helix code / lncRNA), and META-CAN (metabolism-immunity in cancer) demonstrate deep life science capabilities.

3 projects

nanoPaInt (dense nanosuspensions for functional materials), HMST-PC (hybrid metal-semiconductor photocatalysts), and TheraSonix (gas nanostructures for drug delivery) show materials expertise applied across domains.

3D computation and digital modellingsecondary
3 projects

3DInAction (deep learning on 3D point clouds), CBIM (cloud-based building information modelling), and GRAVITATE (geometric reconstruction of cultural heritage) reflect computational geometry and vision capabilities.

Chemical synthesis and catalysisemerging
2 projects

DeraceMWalk (enantioselective catalysis via metal walk) and HMST-PC (photocatalytic water splitting) indicate growing chemistry focus in later projects.

Wearable sensors and point-of-care devicessecondary
2 projects

SNIFFPHONE (smartphone-based disease detection) and A-Patch (autonomous skin patch for infectious disease) show applied sensor development for medical use.

Evolution & trajectory

How they've shifted over time

Early focus
Nanotechnology-enabled disease detection
Recent focus
Life sciences and computational methods

In the early period (2015–2018), TRDF's projects concentrated on nanotechnology-enabled disease detection — breath sensors, microfluidics, ultrasonic drug delivery, and lung screening — alongside scattered contributions to cultural heritage digitization and microscopy. From 2019 onward, the portfolio shifted toward deeper life sciences (cell biology, muscle regeneration, epigenetics, synthetic biology) and computational methods (3D deep learning, cloud-based BIM, digital twins), while maintaining the biomedical thread through MRI-based cancer monitoring. The overall trajectory shows a move from hardware-centric sensor projects toward more fundamental biological research and computational modelling.

TRDF is deepening its life science and computational biology capabilities while maintaining biomedical imaging expertise — future partners should expect strong interest in projects combining biological mechanisms with advanced imaging or data analysis.

Collaboration profile

How they like to work

Role: specialist_contributorReach: Global19 countries collaborated

TRDF acts primarily as a project coordinator (9 of 19 projects), mostly leading small MSCA fellowship and ERC Proof of Concept grants rather than large multi-partner consortia. Its 6 third-party appearances suggest Technion researchers are frequently brought in as subcontracted experts on larger projects led by others. With 76 unique partners across 19 countries, the network is broad but shallow — typical of a major research university that forms project-specific partnerships rather than repeated collaborations with a core group.

TRDF has collaborated with 76 distinct partners across 19 countries, reflecting the Technion's extensive international research network. As an Israeli institution, it bridges European and Middle Eastern research ecosystems, offering non-EU partners a well-connected entry point into H2020 consortia.

Why partner with them

What sets them apart

As the R&D foundation of one of the world's top 100 universities, TRDF provides access to Technion's full spectrum of scientific talent — a single partnership can tap into biomedical engineering, computer science, chemistry, and materials science. Unlike specialized research institutes, TRDF can field researchers across nearly any STEM discipline, making it particularly valuable for multidisciplinary consortia. Its Israel-based perspective also brings non-European research networks and industry connections that most EU partners cannot offer.

Notable projects

Highlights from their portfolio

  • CBIM
    Largest single grant (EUR 527,002) and coordinator role — an ERC Proof of Concept bringing building information modelling to cloud-based digital twin applications.
  • TheraSonix
    Distinctive combination of genetic engineering with ultrasonic imaging for targeted drug delivery into tumors using genetically encoded gas nanostructures.
  • triloci-seq
    Pioneering work on triple helix DNA/RNA structures and Hoogsteen interactions — a frontier area in synthetic biology with potential implications for gene regulation and therapeutics.
Cross-sector capabilities
digitalenvironmentmanufacturingsociety
Analysis note: TRDF is a university-wide R&D foundation, so its project portfolio reflects many independent research groups rather than a single coherent strategy. The 6 third-party roles (no funding data) and the dominance of individual MSCA fellowships make it difficult to assess organizational priorities versus individual researcher interests. The broad topic scatter is expected for a major research university but limits the precision of expertise claims.