- CSIRO to support optimisation and scale-up of DSD battery technology
- DSD process being developed at the South Dakota School of Mines & Technology
- Project to be undertaken by CSIRO’s advanced additive and robotic manufacturing facility in Victoria
- Independent modelling intended to deepen company’s intellectual property position
Critical Resources (ASX: CRR) has received co-funding to support a collaborative research project with Australia’s national science agency the CSIRO to support the scale-up of Dry Supersonic Deposition (DSD) battery technology.
Listen to the HotCopper podcast for in-depth discussions and insights on all the biggest headlines from throughout the week. On Spotify, Apple, and more.
Dry Supersonic Deposition (DSD) can fabricate mechanically robust and electrochemically active lithium iron phosphate (LFP) cathodes without the use of solvents or polymer binders.
The project is directed at the optimisation and scaling of the DSD manufacturing process which sits at the centre of CRR’s licensable battery manufacturing intellectual property.
CSIRO will apply its Digital Twin capability to optimise and de-risk that process and to deliver technical recommendations for further optimisation, development and, if successful, the scale-up of the process.
The project will use CSIRO’s modelling capability to visualise, analyse and optimise the supersonic deposition process CRR is developing for battery cathode and electrolyte manufacture. Simulations will be generated from the Company’s own process parameters, including multiple process variables for the DSD process.
“The battery industry has no shortage of promising chemistry. What it is short of is chemistry that can be manufactured at cost, at scale and repeatably – and that, more than materials performance, is what holds solid-state battery architecture back,” MD, Tim Wither, said.
“With South Dakota Mines and now CSIRO we are finding solutions on both sides: the materials and the manufacturing.
“Our focus at this stage is to develop the process knowledge: the patent position, the data, and the engineering understanding a potential cell manufacturer needs to run it.
“Peer review has established that DSD works. What comes next is knowing where the operating window sits, what causes defects, and how the process behaves at scale. CSIRO’s digital twin capability answers those questions by modelling rather than by spending money and time on trial after trial, and it brings world-class expertise and facilities to the DSD process.
Under the project, CSIRO will undertake:
– Digital twin construction and visualisation: build a three-dimensional virtual model of the spray nozzle assembly and deposition environment, and simulate gas flow behaviour, particle trajectories, particle velocity and temperature distributions, and supersonic shock wave locations.
– Powder and particle size distribution assessment: integrate CRR’s particle size distribution data into the digital twin framework, analyse particle velocity across the size range, visualise impact conditions, estimate deposition efficiency and assess particle-size-dependent bonding behaviour.
– Advanced analytics and defect-mechanism work: identify conditions contributing to defect formation, cracking or poor inter-particle bonding, and run hypothetical simulations to evaluate potential process improvements.
– Recommendations and reporting: deliver technical recommendations for future optimisation, experimental validation and scale-up, together with a comprehensive final report.
CRR was steady at 0.6¢. Mkt cap $19.16M.
Join the discussion: See what HotCopper users are saying about Critical Resources and be part of the conversations that move the markets.
The material provided in this article is for information only and should not be treated as investment advice. Viewers are encouraged to conduct their own research and consult with a certified financial advisor before making any investment decisions. For full disclaimer information, please click here.
