MELON (coordinator), ENGIMA (coordinator), and MANIC all focus on ferroelectrics, multiferroics, domain structures, and magnetoelectric coupling.
UNIVERSITE DE PICARDIE JULES VERNE
French university specializing in ferroelectric and memristive materials for neuromorphic computing, with secondary strengths in biomedical optics and battery research.
Their core work
UPJV is a French university in Amiens with strong research groups in functional materials, condensed matter physics, and biomedical sciences. Their materials teams specialize in ferroelectric, multiferroic, and memristive thin films and nanostructures — materials that underpin next-generation memory devices and neuromorphic computing. In parallel, they maintain active research in biomedical optics (infant brain imaging), cancer cell physiology, and trace element nutrition. They frequently contribute specialized materials characterization and modelling expertise to large European battery and energy consortia.
What they specialise in
MELON targets memristors and resistive switching for neuromorphic computing; MANIC investigates metal-insulator transitions and nano-ionics for neuromorphic circuits.
Third-party contributor across NAIADES, HELIS, ARTISTIC, NAIMA, SONAR, and BIG-MAP — all focused on lithium-ion, sodium-ion, or redox flow battery technologies.
TinyBrains applies biophotonics and near-infrared spectroscopy to image infant brain damage linked to congenital heart defects.
pHioniC studies pH regulation and ion transport in pancreatic cancer; CaSR Biomedicine targets the calcium-sensing receptor in non-communicable diseases.
MILEAGE (coordinator) investigates zinc, copper, and microbiota roles in life expectancy and aging.
How they've shifted over time
In the early period (2015–2018), UPJV's work split between magnetic materials engineering (electrical steels, soft magnetics in ESSIAL), trace element nutrition and microbiota modelling (MILEAGE), and contributions to lithium/sodium battery projects. From 2019 onward, the focus sharpened decisively toward ferroelectric and memristive materials for neuromorphic computing (MELON, MANIC), while a new biomedical imaging thread emerged with TinyBrains. The battery involvement continued but remained a third-party support role rather than a leadership area.
UPJV is concentrating its coordinated research on memristive and ferroelectric materials for brain-inspired computing, making them a strong partner for neuromorphic hardware and advanced memory device projects.
How they like to work
UPJV operates predominantly as a specialist contributor rather than a consortium leader — 8 of 18 projects are third-party roles, typically providing materials characterization or modelling to large battery consortia. When they do coordinate (MILEAGE, ENGIMA, MELON), the projects are MSCA networks focused on their core materials and life sciences expertise, with modest budgets (EUR 247K–451K). With 250 unique partners across 50 countries, they are well-connected but spread thin, suggesting they are frequently invited for niche expertise rather than building deep bilateral relationships.
UPJV has collaborated with 250 distinct partners across 50 countries, giving them one of the broader contact networks for a mid-sized French university. Their reach extends well beyond Europe through MSCA mobility networks and the EU-Africa renewable energy partnership (LEAP-RE).
What sets them apart
UPJV's rare combination of ferroelectric/multiferroic materials expertise with biomedical imaging and cell physiology makes them unusual among French universities of their size. Their materials groups bridge fundamental condensed matter physics and applied neuromorphic device engineering — a niche that few academic partners outside top-tier technical universities occupy. For consortium builders, they offer deep domain knowledge in oxide thin films and memristive phenomena without the overhead of partnering with a large research organization.
Highlights from their portfolio
- MELONTheir largest funded project (EUR 450,800) and most recent coordination role, directly targeting memristive and multiferroic materials for neuromorphic nanoelectronics.
- TinyBrainsRepresents a new research direction — applying biophotonics and near-infrared spectroscopy to infant brain imaging, bridging their optics and biomedical capabilities.
- ENGIMACoordinated MSCA network on nanostructured magneto-piezoelectric materials, establishing UPJV as a training hub for early-stage researchers in functional materials.