VCD is a new sputtering!
Deposition of Chalcogenides
Infrared optics, thermoelectric
Plasma App Ltd. and The University of Southampton are Partnering to deliver a project — Feasibility of a Novel Low Cost Technique to Deposit Chalcogenides; under Innovate UK’s HVM call. Our project aims to unite a novel non-toxic form of chalcogenide material — gallium-lanthanum-sulphide (GLS) — pioneered in the UK by University of Southampton with an equally novel virtual cathode pulsed-electron beam deposition technology (VCD) developed by Plasma App. If successful, our project will be able to provide UK industry with a commercially scalable capability to deposit high quality, cost effective thin and thick films made from this exciting next-generation optical material. The films have a wide range of applications in sensing, process control, medical and communications and will bring benefit to many areas that directly impact the general public — including in the areas of healthcare, pharmaceutical drugs and security.bring benefit to many areas that directly impact the general public — including in the areas of healthcare, pharmaceutical drugs and security.
Solid State Batteries
Solid anode, cathode, and electrolyte
Increasing demand for small, low cost, powerful batteries with increased battery calendar life is driving developments in the thin film Solid State Battery (SSB) market. Rechargeable liquid lithium-ion batteries are currently the most popular battery for portable electronic devices, however, their use is limited due to concerns over overheating and demand for increased battery life. In thin film SSB, liquid electrolyte is replaced by solid electrolyte material which offers the potential for increased energy density, and hence improved battery performance, and increased safety. However, the SSB market is still in its infancy and manufacturing technologies currently do not meet the market requirements, with prices significantly higher than liquid lithium-ion alternatives and overall poor battery performance. Plasma App Limited, experts in film deposition, has identified an opportunity to develop a novel Virtual Cathode Deposition technology for the manufacture of highly efficient SSBs at a commercially attractive price, addressing market requirements. This feasibility project aims to optimise an innovative deposition technique to enable the cost effective production of SSBs.
Deposition for thermoelectric
Thermoelectric 2D material
The ability to produce coatings of a few nanometres where both the fine structure as well as composition determines the desired effect, has proved crucial for making modern devices like mobile phones and electronic tablets. However, there is presently no easily scalable method to produce relatively thick films e. g. of a couple of millimetres with structural and compositional control at the atomic level. The Virtual Cathode Deposition (VCD) approach pioneered by Plasma App has the potential to bridge this technology gap, and thus open-up new possibilities in device manufacture of the next generation of clever ‘widgets.’ Our vision here is to use VCD to provide thick-film manufacturing with an exciting new palette of graphene-type materials and layered structures. To test this, we will focus on the challenge of fabricating electrodes up to several mm thick for thermoelectric devices (they convert a heat-gradient directly into electrical power) where the preservation of nanostructuring in the active material is a major goal. This would provide the UK with an advanced technology to convert waste heat into useful power.
LIB anode of new material
The project goal is to develop a new type of Li-ion battery anode based on a totally new form of carbon material — Carbon Allotrope for Lithium Ion Batteries (CALIB). CALIB was discovered in a joint collaborative project between Plasma App Ltd and Cambridge University within funding from an Innovate UK project. CALIB was prepared in a form of thin film with Plasma App Ltd proprietary deposition technology Virtual Cathode Deposition, VCD. Cambridge University research group of Dr R Vasant Kumar characterized the structure and other physical properties of the material and fabricated Li-ion type of coin cells. On testing the material as an active anode material they demonstrated the battery capacity to be higher four-fold and cycle life stability longer than industrial state-of-the-art graphite based anode. Plasma App, Cambridge University and Johnson Matthey PLC are going to explore the new material with the goal to develop the functional electrode to be integrated within the standard Li-ion battery manufacturing process. Replacing standard graphite electrode with CALIB potentially will allow increase in the specific energy density of the Li-ion battery, increase in battery cycle-life, and improve safety especially under stressed high-power operation conditions.
Direct Cu deposition
Highly thermal conductive PCB
VCD tool scale up
Working with us
Let’s discuss the feasibility study project to solve your problem with VCD!
Dmitry Yarmolich holds PhD in physics from Israeli Institute of Technology.
More than 15 years hands-on experience in plasma applications and theoretical research of plasma is accomplished by more than 20 scientific publications and 2 patents applications.
Denis Yarmolich holds MSc in applied math and physics from Moscow Institute of Physics and Technology followed by post-graduating in Institute of Numerical Mathematics Russian Academy of Science.
He has a great experience in emerging markets trading which he gained working as a director at Barclays Capital.
Phil Taylor is responsible for identifying new partners and applications for VCD technology.
Phil also has experience of raising VC funding for start-ups, and has advised companies on investor-readiness and project management.
He holds a PhD in high temperature diamond processing from University College London and a BSc in Biochemistry from Imperial College London, and has 10 years experience in diamond related R&D.
He holds several patents in diamond annealing and growth and has hands-on experience of IP management.
Yaro Odarchenko has a wide range of practical skills in functional materials discovery and characterisation using X-ray methods, data analysis and modelling.
Whilst being at the National Research Labs and the University of London he worked with the industrial partners such as Dow Chemical, DSM and BP.
Yaro holds PhD in Materials Chemistry from Strasbourg University and MSc in Applied Physics from MIPT.
He published 27 research papers and possesses 9 years of ample experience of designing, building and testing new experimental platforms for the advanced characterisation of functional materials.
Vadim Kuchinskiy holds MSc in applied mathematics and physics from Moscow Institute of Physics and Technology also Vadim holds Master of Arts degree in economics from New Economic School.
Vadim has working experience in finance he worked for large multinational corporations such as ING and RBS as a director in Emerging Market Trading department.
Dr Gleb Ivanov — technology entrepreneur with expertise in energy storage, primary and secondary rechargeable batteries, photovoltaics, new materials for power applications; clean transport technologies, electric and hybrid electric vehicles; batteries in oil and gas industry.
Gleb has a PhD degree in Solid State Physics and over 14 years’ experience in battery industry from equipment procurement, raw material, manufacturing to pricing, supply chains and customer applications. Gleb previously held COO and MD at Oxis Energy Limited.