Central to their role in ULTIMATE, INFUSION, iSwitch, and PHOTOTRAIN — all projects requiring nanoscale surface analysis.
A.P.E. RESEARCH SRL
Italian SME providing scanning probe microscopy and nanoscale surface characterization for 2D materials, optoelectronics, and energy research.
Their core work
A.P.E. Research is a Trieste-based SME specializing in scanning probe microscopy instrumentation and nanoscale surface characterization. They provide advanced measurement tools and expertise for studying 2D materials, molecular self-assembly, and optoelectronic interfaces at the atomic scale. Their core contribution to research consortia is precision surface analysis — enabling partners to visualize and characterize nanomaterials, thin films, and functional surfaces. They sit at the intersection of instrumentation and materials science, serving as a technology provider to academic and industrial research teams across Europe.
What they specialise in
ULTIMATE focuses on atomically precise synthetic 2D materials; PHOTOTRAIN on dynamic self-organized interfaces.
INFUSION targets optoelectronic interfaces; ULTIMATE targets electronic and energy applications of 2D materials.
INDEED project on innovative nanowire device design required precision measurement capabilities.
SUPERTWIN — their highest-funded project (EUR 297,656) — developed an all solid-state super-twinning photon microscope.
How they've shifted over time
In their earlier H2020 period (2015–2017), A.P.E. Research contributed to projects focused on switchable organic electronics (iSwitch), super-resolution microscopy (SUPERTWIN), and photocatalytic interfaces (PHOTOTRAIN) — broad instrumentation support across diverse materials science topics. From 2017 onward, their focus sharpened toward 2D materials, molecular self-organization, and energy-related applications, as seen in INFUSION and especially ULTIMATE (2019–2024), which explicitly targets atomically precise 2D material synthesis for energy use. The trajectory shows a clear move from general microscopy services toward deep specialization in 2D functional materials characterization.
A.P.E. Research is converging on atomic-scale characterization of synthetic 2D materials for energy and electronics — a fast-growing field where their scanning probe expertise positions them as a go-to measurement partner.
How they like to work
A.P.E. Research never coordinates — they join as a participant or third party, providing specialized instrumentation and measurement services to larger consortia. With 68 unique partners across 20 countries from just 6 projects, they operate in large, international networks (typical of MSCA training networks). Their role is that of a specialist contributor: brought in for what their instruments can do, not to lead the science agenda.
Despite being a small company, A.P.E. Research has built an extensive network of 68 unique partners across 20 countries — largely through participation in large MSCA training networks. Their geographic spread is pan-European with no single dominant partner country.
What sets them apart
A.P.E. Research occupies a rare niche: a private SME that provides scanning probe microscopy expertise to academic-led consortia, bridging the gap between instrument manufacturers and fundamental research. Based in Trieste — home to major research infrastructure like Elettra Sincrotrone — they are well-positioned in Italy's strongest materials science corridor. For consortium builders, they offer something universities often cannot: dedicated instrumentation support with the flexibility and responsiveness of a small company.
Highlights from their portfolio
- SUPERTWINTheir highest-funded project (EUR 297,656), developing an all solid-state super-twinning photon microscope — directly aligned with their core instrumentation business.
- ULTIMATETheir most recent and longest-running project (2019–2024), focused on atomically precise 2D materials for energy applications — signals their current strategic direction.
- INFUSIONA global-scale MSCA-RISE project connecting optoelectronic interface research across multiple continents, demonstrating their reach beyond Europe.