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Organization

INFINITYPV APS

Danish SME specialising in organic photovoltaics, roll-to-roll printed electronics, and functional ink manufacturing for smart devices and sensors.

Technology SMEmanufacturingDKSMENo active H2020 projects
H2020 projects
2
As coordinator
0
Total EC funding
€982K
Unique partners
24
What they do

Their core work

INFINITYPV APS is a Danish technology SME specialising in organic and printed electronics, with a particular focus on organic photovoltaics (OPVs) — thin, flexible, printable solar cells that can be manufactured at scale using roll-to-roll and spray coating processes. Their work spans the full value chain from functional materials (conductive inks, PEDOT, silver nanowires, nanocellulose) through deposition techniques (organic vapour phase deposition, screen printing, spray coating) to end applications (biosensors, smart tags, printed antennas, in-mold electronics). In EU projects they contribute as a technology and manufacturing specialist, bringing printed electronics know-how into pilot line environments and helping scale laboratory processes toward industrial production. Their company name and keyword profile both point firmly at printed/flexible photovoltaics as their commercial core, with electronics manufacturing as a closely related service capability.

Core expertise

What they specialise in

Organic photovoltaics and printed solar cellsprimary
2 projects

OPVs appear as explicit keywords in RealNano, and the company name INFINITYPV directly signals organic PV as their founding technology.

Roll-to-roll and scalable printing of organic electronicsprimary
2 projects

RealNano targets high-yield manufacturing using roll-to-roll printing and organic vapour phase deposition, with pilot line validation as a key output.

Conductive inks and functional material formulationsecondary
1 project

MADRAS lists conductive inks, silver nanowires, PEDOT, tungsten oxide, and nanocellulose as core materials, indicating formulation and ink development capability.

In-mold and embedded printed electronicssecondary
1 project

MADRAS covers in-mold integration, printed antennas, photosensors, and smart tags — applied printed electronics embedded into physical products.

Nano-characterization for electronics manufacturingsecondary
1 project

RealNano focuses on in-line, real-time digital nano-characterization to improve yield in organic electronics manufacturing lines.

Evolution & trajectory

How they've shifted over time

Early focus
Roll-to-roll organic electronics manufacturing
Recent focus
Embedded smart devices and printed sensors

Both projects started in the same year (2020), so chronological evolution within H2020 is limited. However, the keyword split between the two projects reveals a clear thematic arc: RealNano sits at the process and characterisation end — roll-to-roll, organic vapour phase deposition, OPVs, OLEDs, OTFTs, pilot lines — while MADRAS moves toward product-embedded applications such as smart tags, printed antennas, autonomous devices, and in-mold electronics. This suggests INFINITYPV is not just a materials or process house but is actively extending into end-use application domains where printed electronics meet consumer or industrial products. The trajectory points from "how do we make this well" toward "what can we make it into."

INFINITYPV appears to be moving up the value chain — from process and materials optimisation toward application-ready printed electronics products such as smart tags, embedded antennas, and autonomous sensor devices, which suggests growing interest in industry verticals like packaging, automotive, and IoT.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European9 countries collaborated

INFINITYPV has participated in both their H2020 projects as a consortium member, never as coordinator, which is typical for a focused technology SME that contributes specific manufacturing or materials expertise rather than driving project administration. With 24 unique partners across 9 countries from just two projects, they operate in relatively large, diverse consortia — suggesting they are brought in as a specialist node rather than a central hub. This profile makes them a low-friction partner to onboard: they know how to operate within complex multi-partner projects and are unlikely to seek project leadership unless their technology is the core deliverable.

INFINITYPV has built a network of 24 unique consortium partners across 9 countries through just two projects, indicating they enter well-connected, pan-European consortia rather than bilateral collaborations. No single dominant geographic cluster is visible from the available data, suggesting broad European exposure rather than a regional focus.

Why partner with them

What sets them apart

INFINITYPV occupies a rare niche as a commercial SME that combines organic photovoltaic expertise with scalable printing manufacturing — most OPV actors are academic labs, while most printed electronics SMEs lack photovoltaic depth. Their participation in both a characterisation-focused manufacturing project (RealNano) and a materials-to-application project (MADRAS) suggests they can contribute at multiple points in the printed electronics development chain, from process optimisation to prototype devices. For a consortium needing a partner who bridges lab-scale organic electronics and pilot-line manufacturing reality, INFINITYPV offers a practically oriented, commercially motivated perspective that academic partners cannot.

Notable projects

Highlights from their portfolio

  • RealNano
    Their largest grant (EUR 557,500) and most manufacturing-focused project, targeting in-line real-time nano-characterization to improve yield on organic electronics production lines — directly aligned with INFINITYPV's core OPV and roll-to-roll expertise.
  • MADRAS
    Demonstrates INFINITYPV's breadth beyond photovoltaics into advanced materials for organic electronics applications including smart tags, printed antennas, and autonomous devices — showing commercial application ambition alongside materials science depth.
Cross-sector capabilities
Printed electronics for automotive (smart surfaces, embedded sensors)IoT and smart packaging (printed antennas, smart tags, autonomous devices)Energy harvesting (organic photovoltaics for low-power devices)Digital manufacturing and quality control (in-line nano-characterization)
Analysis note: Profile is based on only two projects, both starting in the same year (2020), which limits true longitudinal evolution analysis. The company name strongly implies organic photovoltaics as their commercial foundation, which is supported but not explicitly confirmed by project titles. Core expertise signals are consistent and credible; application breadth is inferred from keywords rather than project abstracts.
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