
SunVault Innovations is an R&D and technical consulting firm dedicated to advancing transformative energy technologies from concept to commercialization. Our work spans electrochemical systems, advanced materials, thin films and coatings, prototype development, and process innovation, supporting applications such as batteries, fuel cells, electrolyzers, and catalytic systems. We combine scientific rigor with practical engineering to help clients validate ideas, enhance performance, and scale with confidence.
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Design, modeling, and validation of batteries, fuel cells, electrolyzers, and catalytic systems. We bridge fundamental electrochemistry with device-level engineering to de-risk performance, durability, and scale-up.
Hands-on support for startups developing first-of-kind prototypes and pilot demonstrations, translating laboratory concepts into functional, testable systems.
Engineering and optimization of catalytic inks, coatings, and functional layers for electrochemical devices. We tune formulation, rheology, deposition, drying/curing, and microstructure to improve performance, uniformity, adhesion, porosity, and durability from lab-scale coupons to pilot-relevant processes.
Techno-economic models and feasibility assessments to guide R&D and deployment decisions—covering cost-of-manufacture, cost-to-scale, and supply chain constraints. We evaluate distributed energy resource (DER) deployments (e.g., solar + storage, backup power, microgrids, hydrogen) with CAPEX/OPEX, sensitivity analyses, and scenario comparisons to prioritize the highest-leverage pathways.
Independent technical assessment of electrochemical energy technologies for investors, acquirers, and strategic partners. We verify performance claims through rigorous review of test data, evaluate durability and scale-up risk, benchmark competing approaches, and deliver risk-rated findings that support confident investment and partnership decisions.
CFD, pore network modeling, and machine learning workflows to connect microstructure to device-level performance. We extract actionable insights, run sensitivity studies, and build predictive models that guide technical decisions, de-risk scale-up, and support IP development.
We help accelerate execution by connecting teams with qualified manufacturers, contract fabricators, distributors, testing partners, and key vendors. Support includes introductions, sourcing shortlists, technical scoping, RFQ support, and coordination to reduce lead times and de-risk scale-up.
With over 10 years of experience in electrochemical energy conversion and advanced materials engineering, the projects below highlight representative work spanning fuel cells, electrolyzers, batteries, and membrane systems.

Invented and patented novel fabrication methods incorporating nanobubbles during thin-film coating. These approaches enabled controlled pore architectures and enhanced mass transport, yielding performance benefits across PEM fuel cells, PEM water electrolyzers, lithium-ion battery electrodes, and ultrafiltration membranes. Patent: US20250113651A1

Comparing the electrochemical performance and structural differences of nanobubble-treated fibrous iridium oxide made using electrospinning. It was found that NB-treated samples generate smaller fibers on average with higher overall surface area, resulting in better in electrochemical performance. Patent: US20250257497A1

Investigated the influence of dissolved gases and operating conditions on PEM water electrolyzer performance and durability, linking feedwater chemistry to efficiency, degradation behavior, and operational best practices.

Evaluated platinum group metal-free catalyst systems in direct methanol fuel cells using a custom reference electrode architecture to decouple anode and cathode behavior and identify mechanistic performance limitations.

Tested and characterized the electrokinetics of vapor-fed methanol oxidation reactions in DMFC anodes, providing insight into transport and reaction mechanisms for next-generation fuel cell architectures.

Two-phase pore network simulation comparing water and oxygen transport in a PEM water electrolyzer between a fiber-based titanium porous transport layer (PTL) and a sintered powder PTL. It was found that The Ti fiber PTL has better overall single-phase transport properties, however it takes a larger loss during multi-phase transport, especially at high current density.

Supported a CEC-funded community energy retrofit through battery dynamic modeling, solar generation estimation, and energy balance analysis, with demand modeling informed by OpenStudio simulations and on-site energy data logging.
SunVault Innovations collaborates with industry leaders and operates within advanced research environments to support electrochemical energy R&D, prototyping, and validation.


Through our strategic collaboration with the UCI National Fuel Cell Research Center (NFCRC), we have direct access to the lab equipment below—alongside broader physical and materials characterization resources across UCI facilities, including SEM, FIB-SEM, BET, XRF, XRD, DLS, particle zeta-potential measurements, TGA, and DSC.





























Interested in collaborating or discussing a technical challenge?
Email: info@sunvaulti.com