The California Energy Commission (CEC) has awarded LiCAP Technologies an $11.3 million grant to expand manufacturing capacity and accelerate commercialization of its dry electrode platform, a technology designed to reduce battery production complexity and improve scalability.
The funding comes through the Power Forward program, managed by CALSTART, which supports zero emission vehicle battery manufacturing in California. The investment will enable LiCAP to expand its production footprint, integrate AI enabled robotics, and deploy intelligent manufacturing systems aimed at improving automation, consistency, and industrial scale output.
LiCAP’s expansion follows the company’s previous development of a 300 MWh manufacturing facility, which received earlier CEC support and began production in July 2025. The company is now adding approximately 40,000 square feet to its manufacturing base as it attempts to move its proprietary electrode technology closer to commercial deployment.
The company’s approach centers on its Activated Dry Electrode process, a manufacturing method designed to replace conventional solvent based electrode production. Traditional electrode manufacturing requires coating materials with liquid solvents followed by energy intensive drying and solvent recovery steps. Dry electrode processing removes these stages, potentially reducing production time, energy consumption, and manufacturing complexity.
The technology is particularly relevant for solid state battery development, where manufacturers are seeking production methods capable of supporting higher energy density designs while maintaining cost competitiveness. However, dry electrode manufacturing has historically faced challenges related to process efficiency, material uniformity, and large scale production consistency.
LiCAP’s use of AI driven robotics and automated manufacturing systems is intended to address these barriers. By improving process control and reducing variability, the company aims to make dry electrode production more suitable for high volume battery manufacturing. The challenge remains whether these improvements can translate from pilot environments into reliable gigawatt hour scale production.
The development reflects a broader shift in the battery industry, where technological advantage is increasingly determined not only by chemistry but also by manufacturing capability. While lithium ion battery performance improvements often receive attention, production methods can significantly influence cost, supply chain resilience, and environmental impact.
California’s support also aligns with wider efforts to strengthen domestic battery supply chains. The global battery market remains heavily concentrated in Asia, particularly for cell manufacturing and materials processing, creating strategic pressure in North America and Europe to develop alternative production capacity.
LiCAP’s technology has attracted interest from automotive partners, including Nissan, which has been pursuing solid state battery development with a target of introducing its first solid state battery powered electric vehicle by 2028. Solid state batteries are widely viewed as a potential next step in EV technology because they could offer higher energy density and improved safety compared with conventional lithium ion systems, although manufacturing scale remains a major hurdle.
The company has argued that broad adoption of solid state batteries could accelerate toward 2030, but reaching that stage will depend on overcoming cost, durability, and manufacturing challenges. The transition from laboratory performance to automotive production requires extensive validation because battery failures can create significant safety and reliability concerns.
