SciTransfer
Organization

R.E KAVETSKY INSTITUTE OF EXPERIMENTAL PATHOLOGY, ONCOLOGY AND RADIOBIOLOGY OF NATIONAL ACADEMY OF SCIENCES OF UKRAINE

Ukrainian oncology and radiobiology institute specializing in cancer immunotherapy, DNA vaccines, and nanoporous sorbents for heavy-metal and radioactive detoxification.

Research institutehealthUANo active H2020 projectsThin data (2/5)
H2020 projects
2
As coordinator
0
Total EC funding
€324K
Unique partners
15
What they do

Their core work

The Kavetsky Institute is one of Ukraine's principal biomedical research centers, operating under the National Academy of Sciences with a core mandate in experimental oncology, cancer pathology, and radiobiology. In H2020, their work split across two distinct but complementary directions: cancer immunotherapy — specifically DNA-based tumor vaccines with optimized adjuvant delivery systems — and the application of nanoporous sorbent materials for medical detoxification, including removal of heavy metals and radioactive contaminants from the body via haemoperfusion. Given Ukraine's particular exposure to radiological hazards since Chernobyl, their expertise in biological decontamination carries real-world urgency that most European research institutes lack. The institute contributes specialized laboratory and translational research capacity to international consortia rather than leading projects independently.

Core expertise

What they specialise in

Cancer immunotherapy and DNA-based tumor vaccinesprimary
1 project

VACTRAIN (2016–2018) focused on DNA-based cancer vaccines with adjuvant optimization and small-molecule delivery systems for increasing vaccine potential.

Nanoporous sorbents for medical detoxificationprimary
1 project

NanoMed (2017–2022) addressed nanoporous and nanostructured materials specifically for haemoperfusion, heavy metal uptake, and oral sorbent applications.

Radioactive contamination and radiobiological researchsecondary
1 project

NanoMed keywords include radioactive contamination as a target application for their sorbent materials — a focus consistent with the institute's radiobiology mandate and Ukraine's post-Chernobyl research legacy.

Experimental oncology and tumour pathologysecondary
2 projects

The institute's foundational identity (named for R.E. Kavetsky, founder of Ukrainian experimental oncology) underpins both projects, providing in-house tumour models and cancer biology expertise.

Evolution & trajectory

How they've shifted over time

Early focus
Cancer immunotherapy and DNA vaccines
Recent focus
Nanoporous sorbents, radioactive detoxification

Their first H2020 project (VACTRAIN, 2016) was firmly in cancer biology — DNA vaccines, adjuvant chemistry, immunotherapy of tumours — developed through researcher exchange with European partners under MSCA-RISE. Their second project (NanoMed, starting 2017) shifted the emphasis toward materials science applied to medicine, with nanoporous sorbents for removing heavy metals and radioactive substances from the body replacing immunotherapy as the central topic. This movement from pure cancer biology toward materials-medicine intersections — particularly detoxification applications — suggests the institute is broadening its research portfolio to cover environmental and radiological medical challenges alongside its oncology core.

IEPOR appears to be expanding from experimental oncology into nanomaterial-based medical applications — particularly sorbent technologies for environmental toxin and radioactive contaminant removal — a direction that combines their radiobiology heritage with growing EU interest in medical countermeasures for chemical and radiological exposure.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European13 countries collaborated

IEPOR participates exclusively as a consortium member and has not coordinated any H2020 project, which is consistent with an institute that contributes specialist research capacity rather than managing large-scale EU administration. Despite only two projects, they connected with 15 partners across 13 countries, indicating involvement in large, geographically distributed networks — the MSCA-RISE model encourages exactly this kind of broad, multi-node researcher exchange. For a prospective partner, this means IEPOR is experienced at working within diverse consortia but will expect the coordination burden to sit elsewhere.

From just two projects, IEPOR built connections with 15 distinct partners across 13 countries — an unusually broad reach for such a small H2020 footprint, reflecting the large-network structure of MSCA-RISE schemes. Their geographic spread likely extends beyond the EU to include MSCA partner countries, consistent with their Eastern European base and international science exchange objectives.

Why partner with them

What sets them apart

IEPOR occupies a narrow but genuine niche: a research institute combining experimental oncology with radiobiology and — crucially — direct institutional experience with radioactive contamination, giving them credibility in biological decontamination that few Western European partners can match. Their work on sorbent-based haemoperfusion for radioactive and heavy-metal removal is specialized and difficult to replicate outside institutes shaped by Ukraine's post-Chernobyl research history. For consortia needing an Eastern European partner with oncology depth, radiobiology infrastructure, or expertise in medical responses to radiological exposure, IEPOR is a credible and cost-effective addition.

Notable projects

Highlights from their portfolio

  • NanoMed
    The longest-running project (five years, 2017–2022) and largest budget (EUR 175,500), combining nanoporous materials engineering with radioactive contamination treatment and haemoperfusion — a niche that few biomedical institutes globally can credibly claim.
  • VACTRAIN
    An MSCA-RISE twinning project on DNA-based cancer vaccines that demonstrated early immunotherapy research capacity — and connected IEPOR to a 13-country network — before cancer immunotherapy became a dominant EU funding theme.
Cross-sector capabilities
Environment — radioactive and heavy-metal contamination remediation using sorbent materialsNuclear safety — biological and medical countermeasures for radioactive exposureMaterials science — nanoporous and nanostructured material development for biomedical use
Analysis note: Only 2 projects, both initiated in 2016–2017, provide a thin empirical base. The institute's formal name — experimental pathology, oncology, radiobiology — supplies significant contextual grounding not visible in the project metrics alone, and has been used to inform the profile. Treat all characterizations as indicative; a deeper profile would require access to publications, ongoing national funding, or direct contact with the institute.