AVOXT develops advanced, membraneless electrolyser technology for highly efficient hydrogen production. This system reduces the Levelised Cost of Hydrogen (LCOH) by lowering energy consumption and maintenance requirements compared to traditional methods. The design allows for instant scalability and optimal utilization of fluctuating green energy inputs.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional electrolyzer technologies often rely on membranes that degrade over time, leading to increased maintenance and reduced operational lifespan. This reliance on membranes, coupled with the inherent resistance they introduce, also limits overall energy efficiency and the ability to effectively utilize intermittent renewable energy sources. Consequently, the cost of green hydrogen production remains a barrier to widespread adoption across industries.
Solution
AVOXT develops advanced, membrane-less electrolyzer technology designed to significantly improve the efficiency and reduce the cost of green hydrogen production. Our proprietary design eliminates the need for degrading membranes, thereby reducing maintenance requirements and extending the operational life of the system. This innovation also minimizes internal resistance, leading to higher energy conversion efficiency and enabling rapid, flexible response to fluctuating renewable energy inputs. By addressing these core challenges, AVOXT aims to make green hydrogen a more economically viable alternative to fossil fuels for industrial applications.
Target Audience
AVOXT targets industrial sectors requiring significant hydrogen volumes, including chemical manufacturing, fertilizer production, and heavy industry, as well as renewable energy project developers and hydrogen infrastructure providers.
Features
- Membrane-less electrolyzer stack design, eliminating component degradation and replacement.
- Alkaline electrolysis technology, avoiding the need for expensive Platinum Group Metal (PGM) catalysts.
- Enhanced energy efficiency through reduced internal resistance compared to membrane-based systems.
- High operational flexibility with rapid on/off switching and seamless load scaling (0-100%) to optimize renewable energy integration.
- Extended operational lifespan due to the absence of membrane wear and tear.
- Modular design for scalability to meet evolving industrial demand.
- Optimized hydrogen yield through advanced system adaptations.