
Leibniz Institute for Plasma Science and Technology (INP)
Leading non-university research institute in low-temperature plasma science and technology. Strong focus on application-driven R&D from idea to prototype across plasma medicine, materials, energy, environment, and bioeconomy.
77
Patents
148
Inventors
5
Active Spin-offs
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Licensing Deals
Analysis of our organization's intellectual property assets
Total Patents
77
Recent Patent Publications (2025 & 2026)
4
Top Inventors
Patent Portfolio
Discover our latest patented technologies
The invention relates to a transient spark discharge device (1) configured to generate an atmospheric pressure plasma filament (10) comprising the following components: - a controller circuit (2-1) connected to and configured to control - a DC-voltage-driven driver circuit (2-2) configured to generate a first signal at a first output (7), wherein the controller circuit is configured to control at least one signal property of the first signal, such as an amplitude, a frequency and/or a shape of the first signal, wherein the first output (7) is electrically connected to - a piezoelectric transformer (2-3), wherein the piezoelectric transformer is configured to generate a second signal at a second output (9), wherein the second output (9) is electrically connectable or connected to - a nozzle (3) comprising one or more electrically conductive electrodes (3-1) connectable or connected to the second output (9), wherein each electrode (3-1) comprises a conductive electrode tip (3-4), wherein each electrode comprises a hollow channel (3-2) with a first opening (3-2-1) at its electrode tip (3-4) and a second opening (3-2-2) at an opposite end of the channel (3- 2), such that a feed gas (8) may be flown from the second opening (3-2-2) to the first opening (3-2-1) for replenishing the feed gas (8) at the electrode tip (3-4), wherein the second signal is configured to cause a transient spark discharge at each electrode tip (3-4) of the one or more electrodes such as to generate a transient plasma filament (10) at each electrode tip (3-4).
The present invention relates to a method for performing an enzymatic reaction, wherein the enzymatic reaction is performed in a reaction volume in the presence of water using plasma-generated species. The method is characterized in that plasma is generated in said reaction volume.
The present invention relates to a membrane-electrode-assembly for a proton exchange membrane (PEM) fuel cell or an electrolyzer comprising the following components: a first gas-permeable electrode layer, a first self-supporting nanoporous catalyst layer comprising a noble metal, and a membrane, wherein the first self-supporting nanoporous catalyst layer extends between the first gas-permeable electrode layer and the membrane, characterized in that the first self-supporting nanoporous catalyst layer is formed by a plurality of grains of a first catalyst compound, wherein gaps are formed in between the grains such as to form an increased surface area of the first self-supporting nanoporous catalyst layer for enhancing catalytic reactions, wherein the first self-supporting nanoporous catalyst layer is self-supported by the noble metal.
Success Stories
Companies founded based on our organization's technologies
elementarhy develops and manufactures advanced, scalable Membrane Electrode Assemblies (MEAs) for green hydrogen production via PEM electrolyzers, with a focus on efficiency, durability, and sustainability.
Nebula Biocides GmbH develops highly effective disinfection processes and products based on a novel active ingredient, peroxynitrous acid (ONOOH), for medical and hygiene applications.
Coldplasmatech develops innovative cold plasma wound therapy technologies for chronic and complex wounds.
The INP Greifswald Technology Transfer team is ready to assist you with licensing inquiries and collaboration opportunities
Phone
+49 3834 554 300
welcome@inp-greifswald.de
Address
Felix-Hausdorff-Str. 2 17489 Greifswald Germany
Office Hours
Monday - Friday: 9:00 AM - 4:00 PM