IGNITE PLASMA AT ESCAMPIG 2026 27TH EUROPHYSICS CONFERENCE ON THE ATOMIC AND MOLECULAR PHYSICS OF IONIZED GASES

The framework was benchmarked on two atmospheric-pressure configurations: a pin-to-plate discharge in air and a helium plasma jet interacting with a dielectric target. Comparison against the commercial solver COMSOL shows strong agreement.

✨ What captionFOAM offers:

✅ A detailed chemistry model resolving electrons, ions, metastables and excited species, with semi-implicit coupling of the Poisson equation for the electric field
✅ Automated coupling to the BOLSIG+ Boltzmann solver and the LXCat database, generating OpenFOAM-compatible lookup tables and removing manual preparation of kinetic data
✅ Complex geometries and parallel execution on High Performance Computing systems, taking advantage of OpenFOAM’s capabilities
✅ A modular open-source architecture in which governing equations, chemistry models, boundary conditions and discretisation schemes can be extended by the user

Next steps include more complex chemistry, the effects of turbulent gas mixing, operation in different voltage waveforms, and the introduction of biological targets.

 

Acknowledgements

This work was partially funded by the European Union’s Horizon 2020 research and innovation programme under the Marie Skłodowska-Curie Action (Grant Agreement 101034403), and the Horizon-EIC-2023 Pathfinder Open (Grant Agreement 101129853) and UKRI (Grant Agreement 10106237).

 

Follow us on #IgnitePLASMA

The conference abstract is available on our Publications page

JULY 7TH/11TH – FUNCHAL, MADEIRA, PORTUGAL

At ESCAMPIG 2026, George Vafakos presented a poster on captionFOAM, an open-source framework for modelling low temperature cold atmospheric plasmas. George is a Postdoctoral Researcher (MSCA COFUND Fellow) at our coordinating partner, the University of Cyprus, and a member of the In Silico Modelling Group.

Simulating a cold atmospheric pressure plasma discharge means resolving gas flow, plasma chemistry and electric fields together, as a single coupled problem — and doing so in geometries that resemble a real device rather than an idealised test case.

captionFOAM (Cold Atmospheric Plasma Tool for IONised gases) is an open-source extension of the OpenFOAM finite-volume library, developed for the modelling of non-equilibrium cold atmospheric plasmas. Because it sits inside OpenFOAM, the plasma equations can couple directly to the fluid dynamics and heat transport solvers already available there, and the model remains open-source for anyone to freely inspect, modify and reuse.

Poster ESCAMPIG 2026

Conference poster: An OpenFOAM-based open source multiphysics framework for modelling low temperature plasmas, ESCAMPIG 2026.

 

The framework was benchmarked on two atmospheric-pressure configurations: a pin-to-plate discharge in air and a helium plasma jet interacting with a dielectric target. Comparison against the commercial solver COMSOL shows strong agreement.

✨ What captionFOAM offers:

✅ A detailed chemistry model resolving electrons, ions, metastables and excited species, with semi-implicit coupling of the Poisson equation for the electric field
✅ Automated coupling to the BOLSIG+ Boltzmann solver and the LXCat database, generating OpenFOAM-compatible lookup tables and removing manual preparation of kinetic data
✅ Complex geometries and parallel execution on High Performance Computing systems, taking advantage of OpenFOAM’s capabilities
✅ A modular open-source architecture in which governing equations, chemistry models, boundary conditions and discretisation schemes can be extended by the user

Next steps include more complex chemistry, the effects of turbulent gas mixing, operation in different voltage waveforms, and the introduction of biological targets.

 

Acknowledgements

This work was partially funded by the European Union’s Horizon 2020 research and innovation programme under the Marie Skłodowska-Curie Action (Grant Agreement 101034403), and the Horizon-EIC-2023 Pathfinder Open (Grant Agreement 101129853) and UKRI (Grant Agreement 10106237).

 

Follow us on #IgnitePLASMA

The conference abstract is available on our Publications page

Webinar | From Concept to Prototype: The Cold Atmospheric Pressure Plasma Platform Developed for Minimally Invasive Cancer Treatment

WHEN

29 September 2026 — 17:00 EEST | 10:00 EDT

Approximately 50–60 minutes, including live Q&A.

This session is designed for researchers, biomedical engineers and clinicians with an interest in plasma medicine, as well as medtech innovators and stakeholders in the EIC ecosystem curious about plasma medicine and new technologies in cancer treatment.

IgnitePLASMA is funded by the European Innovation Council (EIC) under the Pathfinder Open programme (Grant Agreement No. 101129853) and UKRI (Grant Agreement No. 10106237).

 

Disclaimer:

By registering, you agree that Synnous Ltd may process the details you provide in order to administer this webinar and to report attendance figures to the European Innovation Council and UKRI, as required under the IgnitePLASMA grant agreements.This section will be recorded for internal project purposes. Attendee cameras and microphones remain off throughout; however, the name you register with may be visible if you submit a question during the Q&A.

To ask how your data is handled, or to request its deletion, contact us via igniteplasma.eu.



Pancreatic and biliary tract cancers remain among the most difficult cancers to treat, with limited surgical options and survival rates that have changed little in decades. Cold atmospheric pressure plasma (CAPP) is emerging as a promising modality, offering selective cytotoxic effects on tumour cells while minimising damage to surrounding healthy tissue.

Within the EIC- and UKRI-funded IgnitePLASMA project, researchers at the University of Patras have been designing, building and characterising the CAPP hardware platform that will underpin a novel minimally invasive surgical tool targeting these two malignancies.

Dr. Panagiotis Svarnas, Professor, University of Patras, Greece, leading its design and development, will present the engineering journey: from design requirements and plasma source development — including sinusoidal and pulsed CAPP configurations — through to sensor integration and the adaptive treatment capabilities now being refined. A demonstration of the 4D programmable translation stage system will offer a concrete look at the platform in action.

 

SPEAKERS

Dr. Panagiotis Svarnas, Professor, University of Patras, GR

Dr Vasileios Vavourakis, Professor, University of Cyprus

 

Register here

WHEN

29 September 2026 — 17:00 EEST | 10:00 EDT

Approximately 50–60 minutes, including live Q&A.

This session is designed for researchers, biomedical engineers and clinicians with an interest in plasma medicine, as well as medtech innovators and stakeholders in the EIC ecosystem curious about plasma medicine and new technologies in cancer treatment.

IgnitePLASMA is funded by the European Innovation Council (EIC) under the Pathfinder Open programme (Grant Agreement No. 101129853) and UKRI (Grant Agreement No. 10106237).

 

Disclaimer:

By registering, you agree that Synnous Ltd may process the details you provide in order to administer this webinar and to report attendance figures to the European Innovation Council and UKRI, as required under the IgnitePLASMA grant agreements.This section will be recorded for internal project purposes. Attendee cameras and microphones remain off throughout; however, the name you register with may be visible if you submit a question during the Q&A.

To ask how your data is handled, or to request its deletion, contact us via igniteplasma.eu.