Caason Group participated in the Australian Hydrogen Research Conference (AHRC) 2026, contributing to the national dialogue on hydrogen technologies, resource efficiency, and integrated energy systems.
In collaboration with Innova Sierra, the Group presented research led by Dr Bala S. Kumble, Group Head of Innovation and Research and Development. The presentation, titled Closed loop hydrogen and biochar systems from agri biomass and plastics, examined a modular systems architecture designed to convert agricultural biomass residues and waste plastics into high purity hydrogen while stabilising carbon as biochar.
AHRC serves as a key forum for researchers, industry participants, and technology developers engaged in advancing hydrogen-related science and commercialisation pathways. Caason Group’s involvement reflects its continued focus on applied innovation and systems-oriented solutions within the broader energy transition landscape.
Dr Kumble’s research addresses an inefficiency frequently observed across waste and resource streams. Biomass and plastics exhibit chemical complementarity during thermochemical conversion processes. Plastics generate hydrogen-rich volatiles, while biomass provides a stable carbon matrix and naturally occurring mineral content capable of assisting catalytic behaviour. Under controlled co-processing conditions, these characteristics can enhance hydrogen yield, suppress undesirable by-products, and improve overall system performance.
The research highlights the importance of evaluating hydrogen production, waste utilisation, and carbon stabilisation within an integrated framework rather than as isolated infrastructure challenges. This systems perspective is increasingly relevant as energy technologies move from controlled laboratory environments into real-world operating conditions.
Caason Group research presentation at AHRC 2026 examining closed loop hydrogen and biochar systems derived from agricultural biomass and waste plastics.
A central component of the model presented at AHRC 2026 is AI-driven digital twin optimisation through the EAGLE platform. Real-time sensing, predictive modelling, and adaptive control mechanisms enable dynamic responses to variability in feedstock composition and operating conditions. Such capabilities are particularly significant for decentralised or field-scale deployment scenarios, where material inputs are inherently inconsistent.
Simulation and modelling outcomes discussed during the conference indicated measurable performance advantages under mixed feedstock conditions. Increasing biomass ratios improved hydrogen yield and reduced net COâ‚‚ intensity, while AI-based optimisation enhanced operational stability and efficiency. These findings reinforce the value of designing energy systems around practical material flows and operational variability.
Caason Group’s presentation at AHRC 2026 aligns with its long-standing emphasis on technologies capable of operating under realistic economic and industrial constraints. The Group’s multidisciplinary research and development initiatives prioritise solutions that integrate resource recovery, energy production, and carbon management.
Participation in AHRC 2026 underscores Caason Group’s commitment to engaging with the research community, industry stakeholders, and collaborative partners contributing to Australia’s evolving hydrogen and energy landscape.
Caason Group welcomes engagement with organisations and researchers interested in further discussion, validation pathways, and potential pilot deployment opportunities arising from the research presented at AHRC 2026.
