Patented surface coating technologies available for licensing. Release-free antibiofouling and scratch-resistant coatings for medical devices, contact lenses, and implants — and TiN-based electrocatalytic thin films for the hydrogen evolution reaction (HER). 15 granted patents (DE, EU, US) · 160+ publications · Kiel, Germany.
Prof. Mohammed Es-Souni is an Honorary Member of Kiel University of Applied Sciences and founder of IMST — Institute for Materials & Surface Technology. Over 35 years, his research has consistently delivered functional coating technologies that solve real-world problems in medicine, industry, and energy.
His work centres on two commercially impactful pillars: release-free antibiofouling and scratch-resistant coatings for medical devices, contact lenses, implants, and industrial surfaces; and electrocatalytic thin-film coatings for green hydrogen production alongside nanostructured electrochemical energy storage systems.
All coating technologies are developed using environmentally sustainable methods — photografting, sol-gel deposition, and electrochemical processing — enabling scale-up from laboratory to industrial production without hazardous processing routes.
His research has been funded by the DFG, German Federal Ministries, and the European Union, with a cumulative portfolio exceeding €15 million. Five technology transfer awards recognise the consistent translation of research into industrial value.
Patented release-free antibiofouling and scratch-resistant surface coatings — no biocides, no leachable agents. Photografted polymer brushes on porous oxide scaffolds deliver simultaneous protein resistance and mechanical durability. Proven for medical devices, RGP contact lenses, implants, optics, and membranes. Available for licensing and co-development.
UV-initiated photografting of PEG, pSBMA, and related antifouling polymer chains directly onto substrate surfaces including porous alumina, metals, and polymers. Chemically anchored brushes resist protein adsorption and bacterial adhesion without releasing agents.
Pore walls of anodized alumina and other porous oxide supports are functionalized with photografted antifouling brushes. This architecture combines mechanical robustness of the oxide scaffold with the antifouling chemistry of the brush — enabling scratch-resistant, non-fouling surfaces.
Inorganic-organic hybrid coatings combining metal oxide nanoparticles (TiO₂, SiO₂, Al₂O₃) with photografted antifouling polymer matrices. The hard oxide phase provides mechanical reinforcement and scratch resistance while the polymer brush imparts protein repellency — a superior architecture to purely organic multilayer systems.
Nanostructured thin-film electrocatalysts for the hydrogen evolution reaction (HER) — TiN films with engineered oxygen defects, Au-nanorod-supported Pd/Pt catalysts, and porous PtPd alloy nanotube coatings. Outstanding HER performance with minimal precious metal loading. Scalable deposition processes for green hydrogen production electrodes. Validated in Nanomaterials, Catalysis Science & Technology.
Thin films of titanium nitride (TiN) with engineered oxygen defects act as robust, cost-effective HER electrocatalysts with outstanding performance. The defect engineering strategy tunes electronic structure and active site density without relying on platinum-group metals. Validated in Nanomaterials 2024.
Au-nanorod arrays used as high-surface-area supports for Pd and Pt nanocatalysts deposited at ultra-low loading. Systematic study (Nanomaterials 2023) demonstrated Pd outperforms Pt mass-for-mass on Au-NR supports — directly informing cost-reduction strategies for green hydrogen electrolysers.
Template-derived porous PtPd alloy nanotubes on substrate surfaces combine maximised active surface area with minimal Pt content. Demonstrated high-performance HER electrocatalysis with low Pt loading (Catalysis Science & Technology 2019) — a viable path to affordable water-splitting electrodes.
Publications focused on antibiofouling surfaces and electrocatalytic coatings for hydrogen production, from a career total of 160+ peer-reviewed papers.
15 granted patents (DE, EU, US) covering release-free antibiofouling coatings, scratch-resistant transparent surfaces, contact lens coatings, medical implant coatings, and porous functional coating systems. All technologies are application-ready and available for exclusive or non-exclusive licensing, joint development, or technology transfer.
Functional antifouling and wettability-enhancing coating for rigid gas-permeable (RGP) contact lenses. Environmentally friendly photografting process.
Release-free antibacterial surface treatment for implantable medical devices. Durable, biocompatible anti-adhesive performance without biocidal leaching.
European patent for a transparent, mechanically durable antifouling coating. Combines optical clarity with scratch resistance and protein-repellent surface chemistry for sensors, optics, and glass.
Coating system tailored for polymers and silicones — imparting hydrophilicity, anti-adhesion, and surface energy control. Applicable to medical housings, tubing, and consumer devices.
Controlled production of porous coating layers enabling combined antifouling and functional performance through structural engineering at the nano- and microscale.
Dual European and US patent for a durable hydrophobic anti-fingerprint and oleophobic coating for glass, ceramics, and metals. Validated commercial deployment.
For licensing enquiries, industrial partnerships, joint R&D, or consulting in antibiofouling coatings, scratch-resistant surfaces, and HER electrocatalyst films for green hydrogen production. Technology transfer managed in cooperation with Ascenion GmbH.