DOE-backed scale-up of C-BATT's Obsidia™ now underway

ORLANDO, Fla. - Rezul -- C-BATT and Semplastics today announced that manufacturing scale-up of Obsidia™, C-BATT's domestically sourced lithium-ion battery anode material, is now underway through an active $1.25 million U.S. Department of Energy (DOE) project. The announcement marks the start of the work—not simply the selection of the project.

Over the 18-month program, the team will move Obsidia from batch production toward semicontinuous manufacturing, produce the material at larger scale and validate it in prototype full cells. The work is focused on proving that Obsidia can be made repeatedly, economically, and at useful scale.

Beyond the funding, the award is a meaningful vote of confidence in Obsidia from the DOE as a domestic critical-material solution that supports the goal of U.S. energy dominance. The project targets a major U.S. supply-chain vulnerability: reliance on imported battery-grade graphite. Obsidia combines silicon oxycarbide (SiOC) chemistry with abundant domestic carbon feedstocks, including abundant American coal.

More on Rezul News

• Fair Price Near Me Launches 10 Free Homeowner Planning Tools Across 195 U.S. Cities
• Vallejo Buyers Have Choices Again: 222 Single-Family Homes Hit the Market
• LCC Asia Pacific Sponsors CubeSatPlus 2026 at UNSW Sydney
• Real Estate Syndication Attorney Tilden Moschetti Releases The Real Estate Private Equity Blueprint
• 5X Gross Margin Improvement to Beat EPS Consensus; $54.6 Million 10-Year Contract Award Puts Cybersecurity Leader on Path to a $30 Million Run Rate

Obsidia's manufacturing path is also a core advantage. Many silicon-rich anode materials depend on chemical vapor deposition, intricate nanoscale structures, or other complex production steps. Obsidia is made through chemical mixing and thermal processing that can be adapted to familiar industrial equipment. C-BATT expects this simpler production route to shorten scale-up time, reduce factory complexity, and keep capital costs lower than many silicon-based approaches. Obsidia is also designed for use with conventional lithium-ion battery electrode processing.

"Battery companies do not just need promising chemistry. They need a material they can buy in volume and run through practical manufacturing," said Josh McConkey, director of commercialization at C-BATT. "This project begins the work of proving that Obsidia can meet these demands while strengthening the American battery-material supply chain."

The project team will develop, qualify, and optimize Obsidia made with cleaned waste coal fines, demonstrate semicontinuous production, and validate performance in full pouch cells. The team will also complete a life-cycle assessment, techno-economic analysis, and manufacturing feasibility studies that compare the domestic process with battery-grade natural graphite produced overseas.

More on Rezul News

• ID1Verify Launches Remote Video Service for UK Land Registry Verification
• Independent Colbert Packaging Thrives Amid Industrywide Consolidation
• Free Commercial Glass Estimating and Code Compliance Tools Launched by Landmark Construction - The Leading Glass Company in Los Angeles
• The Resort At The Bridge District Opens In West Sacramento
• BUGS AND BYTES LLC Launches ambasSUBTOr™ —The Platform Closing the Intelligence Gap for In

Semplastics will lead SiOC resin development and manufacturing scale-up. C-BATT will lead Obsidia formulation, qualification, and battery-cell validation. CONSOL Innovations will support domestic feedstock selection, pyrolysis scale-up, and the project's techno-economic and life-cycle work.

The project team expects the Obsidia scale-up process to progress rapidly, due to C-BATT's extensive work on simplifying the anode material synthesis processes.

For more information, visit www.c-batt.com (https://lg9bwucab.cc.rs6.net/tn.jsp?f=001KyUoUfPR_oWB2_GIiVbOCg60HyY-FugAEQxYsq0MxsfzSYvTQJAezW5at9lOozpqK6paMvnxiihF-JZI2FdlJClf5alFcRgIfN6yZhF4vdFFcEbsn1VsLH9-xX8j44KBc2Gnd_xYTxoFvAaw3VtR_BibhP5KN2jcu-ZkVwxnNwo=&c=jF_sLtJaI3jvSGim9wZKUQobgkpaMIaX...).