Hydrogen: The Future of Sustainable and Secure Energy
Challenges to Adoption
High production costs of hydrogen, a lack of supporting infrastructure and technological limitations are hindering the mass adoption of hydrogen today.
Flexible, Long Lasting
Hydrogen is a versatile energy carrier that can be used in various applications. It is also effective for long duration energy storage without degradation.
High Energy Density
Hydrogen has the highest energy content per unit of mass of any fuel , which makes it the superior energy carrier when it comes to gravimetric energy density. This is particularly important for applications where weight and payload matters.
Clean, Zero-emission
Hydrogen is a clean energy vector that does not produce greenhouse gases or pollutants when used as a fuel. Its potential for renewable production through processes such as water electrolysis make it a sustainable energy solution with minimal environmental impact.
Abundant and Secure
Hydrogen is one of earth's most abundant elements and can be produced from various sources, including water, natural gas, and biomass. Its wide availability contributes to a future of energy security and enhances energy independence.
Overcoming commercialisation barriers through Material Science
Material science is a critical key to addressing challenges related to hydrogen production, storage, transportation, and use.
Enhancing Performance
Nanomaterials can offer improved surface area, reactivity, conductivity, electrochemical, thermal and other electrochemical or mechanical properties.
These help ensure effective system performance, such as power efficiency and form factors.
Ensuring Long Term Reliability
Ensuring product reliability across the production, storage and use of hydrogen relies on minimising component degradation and failure.
Nanotechnology can enable higher degrees of hydrogen impermeability, anti-stress and anti-corrosion properties across harsh acidic, alkaline or high-temperature operating conditions.
Elevating Lower
Cost Materials
Advancements on the material level can enhance the properties more abundant and affordable substrates such as stainless steel.
Using precious-metal-free materials are critical for the long-term commercialisation of new technologies.
Filtered Cathodic Vacuum Arc (FCVA) Coating Technology
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Our proprietary FCVA technology delivers the capability to deposit 100% pure and high-energy ions on a wide range of material substrates. This coating technology significantly enhances the properties (e.g. electrochemical, corrosion resistance) of the material, while filtering undesirable macro-particles that affect the coating quality and integrity. The coatings can be precisely tuned and optimised based on the application.
The coating is performed near room-temperature, ensuring a higher energy efficiency. This also allows vacuum coating techniques to be performed onto a further range of substrate materials which is conventionally challenging, such as plastics, rubber and ceramics, in addition to conventional materials such as metals.
Our FCVA technology has been in use for mass production across a range of industries such as 3C (Computer, Communication and Consumer electronics), automotive, precision engineering and printing.
Through using foundational material technologies, Sydrogen unlocks advantages across the hydrogen value chain in the performance, durability and cost for critical fuel cell components.
Find out more on the group's technology HERE
TAC-ON® - Revolutionary Wear Resistant Solution
TAC-ON® and i-TAC® deposit non-hydrogenated carbon and other composite materials using patented FCVA technology at low temperature with superior quality compared to normal DLC that reduce wear of parts and extend product life span with smooth operation across different industries, including Electronics, Printing and Imaging, Semiconductor, Precision Engineering, Medical Devices, Textile Manufacturing.