SciTransfer
Organization

SEMPA SYSTEMS GMBH

Dresden SME specialising in GaN power semiconductor reliability and atomic layer deposition for automotive, industrial, and renewable energy applications.

Technology SMEdigitalDESMEThin data (2/5)
H2020 projects
2
As coordinator
0
Total EC funding
€568K
Unique partners
47
What they do

Their core work

SEMPA Systems GmbH is a Dresden-based technology SME operating at the intersection of advanced semiconductor manufacturing and power electronics. Their work spans precision additive manufacturing using atomic layer deposition for microsystems and MEMS devices, as well as the packaging and reliability engineering of GaN (gallium nitride) power semiconductors for demanding applications in automotive, industrial, and renewable energy systems. Based in Silicon Saxony — Germany's premier semiconductor region — they bring specialist fabrication and materials expertise to large European R&D consortia. Their practical focus is on turning advanced semiconductor materials and deposition processes into robust, field-ready power conversion components.

Core expertise

What they specialise in

GaN power semiconductor packaging and reliabilityprimary
1 project

GaN4AP (2021–2025) directly addresses robustness and system reliability of GaN devices in automotive on-board chargers, industrial motor drives, and photovoltaic inverters.

Atomic layer deposition and 3D additive manufacturingprimary
1 project

ATOPLOT (2020–2022) focused on atomic-layer 3D printing technology for microsystems engineering and MEMS fabrication.

Power conversion for automotive and renewable energysecondary
1 project

GaN4AP targets on-board chargers and photovoltaic inverters as primary application domains for advanced power semiconductor deployment.

MEMS and microsystems engineeringsecondary
1 project

ATOPLOT listed microsystems engineering and MEMS and sensors as core technology domains alongside the 3D deposition platform.

Evolution & trajectory

How they've shifted over time

Early focus
Atomic layer deposition, microsystems
Recent focus
GaN power semiconductors, automotive power electronics

SEMPA's earliest H2020 engagement (ATOPLOT, 2020) was rooted in nano-scale fabrication — atomic layer deposition and precision 3D printing for microelectromechanical systems — suggesting a background in advanced materials processing and micro-device manufacturing. By 2021, their second project (GaN4AP) had shifted the focus decisively toward power electronics: GaN semiconductors, energy efficiency, and the reliability demands of automotive and grid-tied power conversion. This trajectory suggests SEMPA is moving from materials and fabrication science toward applied power electronics, using their deep knowledge of semiconductor processes to address the packaging and durability challenges that limit GaN adoption in high-stakes systems.

SEMPA appears to be positioning itself as a specialist in GaN semiconductor reliability and packaging — a critical bottleneck as the automotive and renewable energy industries scale up wide-bandgap power electronics adoption.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European9 countries collaborated

SEMPA participates exclusively as a consortium partner, never as a project coordinator, which is consistent with a specialist SME that contributes targeted technical expertise rather than leading programme management. Both of their projects are Innovation Actions — applied, industry-facing projects — which signals that they are engaged at the technology development and validation stage, not pure research. With 47 unique consortium partners drawn from just two projects, they operate within large, multi-partner consortia, likely valued for their specific fabrication or characterisation capabilities rather than broad project leadership.

SEMPA has built a surprisingly broad network of 47 unique partners across 9 countries from only two projects, reflecting the large consortium structures typical of H2020 Innovation Actions. Their Dresden location anchors them in the Silicon Saxony cluster, which likely shapes their industrial connections toward German and European semiconductor supply chains.

Why partner with them

What sets them apart

SEMPA occupies a rare dual niche: advanced nano-scale deposition and additive manufacturing on one hand, and GaN power semiconductor reliability engineering on the other. Few SMEs bridge atomic-level fabrication processes and system-level power electronics validation, making SEMPA a potentially distinctive partner for consortia that need to close the gap between materials innovation and industrial deployment. Their Dresden base further connects them to one of Europe's densest semiconductor ecosystems, giving them proximity to both research institutes and industrial integrators.

Notable projects

Highlights from their portfolio

  • GaN4AP
    With a four-year timeline (2021–2025) and focus on GaN reliability across three high-growth application areas — automotive charging, industrial motor drives, and solar inverters — this project places SEMPA at the centre of Europe's wide-bandgap power electronics push.
  • ATOPLOT
    The largest funding award for SEMPA (€346,229) and their earliest H2020 entry, this project on atomic-layer 3D printing for MEMS reveals a foundational capability in precision nano-fabrication that underpins their semiconductor materials expertise.
Cross-sector capabilities
Energy & clean power conversion (photovoltaic inverters, grid-tied power electronics)Automotive electrification (on-board chargers, motor drives for EVs)Advanced manufacturing (atomic layer deposition, precision 3D printing for micro-devices)
Analysis note: Only two projects with limited keyword depth; no coordinator roles, no website, and no public description of the company's core commercial offer. The profile is internally consistent but rests on thin evidence — treat expertise area strengths as indicative rather than confirmed. A third data point (company website, LinkedIn, or additional project participation) would substantially improve confidence.