SciTransfer
Organization

ECOLE NATIONALE SUPERIEURE DE CHIMIE DE PARIS

French chemistry school specializing in ruthenium-based photodynamic cancer therapy and bioinorganic approaches to gene editing.

University research grouphealthFRNo active H2020 projects
H2020 projects
9
As coordinator
3
Total EC funding
€2.9M
Unique partners
59
What they do

Their core work

Chimie ParisTech is one of France's elite chemistry engineering schools, specializing in medicinal inorganic chemistry and metal-based therapeutic agents. Their core research develops ruthenium polypyridyl complexes for photodynamic therapy (PDT) — using light-activated metal compounds to selectively destroy cancer cells. They also contribute expertise in computational spectroscopy, physical chemistry of confined systems, and increasingly in nucleic acid-based therapies including CRISPR gene editing and bioinorganic materials for drug delivery.

Core expertise

What they specialise in

Ruthenium-based photodynamic therapy for cancerprimary
3 projects

Three projects (COMBPDCHEMOTHERAPY, PhotoMedMet, OrganometRuPDT) spanning 2015-2021, all coordinated by the institution, focused on Ru(II) complexes as photosensitizers.

Medicinal inorganic chemistryprimary
3 projects

PhotoMedMet (ERC Consolidator, EUR 2M) and two MSCA fellowships demonstrate deep, sustained work on metal complexes for therapeutic applications.

Nucleic acid therapies and gene editingemerging
1 project

NATURE-ETN (2020-2024) covers CRISPR, immunotherapy, epigenetics, and DNA crystallography — a shift toward bioinorganic applications in genetic medicine.

Physical chemistry of confined systemssecondary
1 project

CONIN project (2017-2022) studied self-assembly and ionic systems under confinement, contributing theoretical chemistry expertise.

Computational spectroscopysecondary
1 project

COSINE training network (2018-2021) applied computational spectroscopy methods across natural sciences and engineering.

Bio-based composites and materialssecondary
1 project

Contributed as third party to SSUCHY project on plant fibre composites and sustainable biocomposites.

Evolution & trajectory

How they've shifted over time

Early focus
Metal-based cancer phototherapy
Recent focus
Bioinorganic gene editing tools

In the early H2020 period (2015-2018), their work centered firmly on inorganic chemistry fundamentals: ruthenium metal complexes for photodynamic cancer therapy, physical chemistry of confined systems, and plant fibre composites. From 2020 onward, a clear pivot emerges toward biological applications of chemistry — nucleic acid therapies, CRISPR gene editing, DNA crystallography, and bioinorganic materials. This trajectory shows a group moving from designing therapeutic metal compounds toward integrating those capabilities with the molecular biology revolution in gene editing and immunotherapy.

They are bridging inorganic chemistry with genetic medicine — expect future work at the intersection of metal-based agents and nucleic acid therapeutics, a niche few chemistry schools occupy.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European20 countries collaborated

They operate as both project leaders and specialist contributors in roughly equal measure: 3 projects as coordinator, 3 as participant, and 3 as third party. Their coordinated projects are smaller, focused fellowships and grants (MSCA, ERC), suggesting they lead investigator-driven research rather than large industrial consortia. With 59 unique partners across 20 countries, they maintain a broad but research-oriented network — characteristic of a prestigious institution that attracts international talent through individual excellence programs.

They have collaborated with 59 unique partners across 20 countries, reflecting a wide European research network. Their connections span universities and research organizations rather than industrial partners, consistent with their ERC and MSCA funding profile.

Why partner with them

What sets them apart

Chimie ParisTech occupies a rare niche at the intersection of inorganic chemistry and cancer medicine — specifically, designing light-activated metal compounds that kill tumour cells. Very few institutions in Europe combine this depth in ruthenium photochemistry with growing capability in nucleic acid therapies and gene editing tools. For consortium builders, they bring a chemistry school's rigorous synthetic and analytical capabilities to biomedical problems that most biology-focused partners cannot address from the materials side.

Notable projects

Highlights from their portfolio

  • PhotoMedMet
    Their flagship: an ERC Consolidator Grant worth EUR 2M (2016-2022) on inert phototoxic Ru(II) complexes — the largest single grant and a mark of individual research excellence.
  • NATURE-ETN
    Signals their strategic pivot: a training network on CRISPR, gene editing, and nucleic acid therapy that connects their chemistry roots to the frontiers of genetic medicine.
  • OrganometRuPDT
    Builds directly on PhotoMedMet with cancer-cell-specific organometallic photosensitizers, showing sustained leadership in a focused therapeutic niche.
Cross-sector capabilities
Advanced materials and biocompositesComputational chemistry and spectroscopyFood-grade sustainable materialsNanomedicine and drug delivery
Analysis note: Profile is shaped heavily by one research group's ERC/MSCA track record in medicinal inorganic chemistry. With 9 projects (3 as third party with no direct funding), the institution's full breadth may be underrepresented. The third-party roles in SSUCHY and CIMNAS suggest additional materials science capabilities not fully captured in the keyword data.