| Clean Energy Capability Portfolio | Renewable Generation | Photo-Piezocatalytic Green Hydrogen  Generation The current research program involves the development of materials , processes , and devices to generate hydrogen from seawater by piezo-photocatalysis without the complications affecting electrolysis . The ceramic catalyst materials are protected by two patent applications describing different materials that can be engineered to prevent chlorine and oxygen generation – only hydrogen , therefore improving safety and economics . | Competitive Advantage • Capacity to engineer novel materials that suppress Cl2 / O2 generation , while efficiently generating H2  • Funding from Vecor Technologies Impact • Energy – large-capacity , scalable , mobile H2 generation  • Environment – green H2 generation  • Security – no strategic raw materials  • Simplicity – high-yield generation of H2 using sunlight and ultrasound  • Materials – ceramic catalysts can be synthesised ( aqueous-based , non-toxic , non-strategic ) or purchased , use of abundant / free seawater  • Economics – low-cost , basic infrastructure and processes for efficient H2 production , 2030 global hydrogen generation market estimated at A $ 477 billion | Successful Applications • Patent 1 – Engineerable-composition catalyst  • Patent 2 – Engineerable-defect catalyst  • Capabilities and Facilities  • Three dedicated laboratories ( 120 m2 )  • Comprehensive facilities for fabrication ( School of Materials Science and Engineering ), analyses ( UNSW Mark Wainwright Analytical Centre ), and testing ( UNSW-Vecor Laboratories and UNSW School of Chemistry )  • Expertise in processing , analyses , and testing of ceramic catalysts electrochemistry , and hydrogen Our Collaborators • Vecor Technologies More Information Professor Charles Sorrell | 
|  • Safety – no production of O2 or Cl2 |  School of Materials Science and Engineering | ||
|  • Major funding from Vecor Technologies |  NEMCAT Group | ||
|  • Government National Science and Research Priorities – energy , advanced manufacturing , and environmental change |  T : + 61 2 9385 4421  E : c . sorrell @ unsw . edu . au | ||
|  • Contribution to Australian Public Service Net zero 2030 | |||
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