CLEAN ENERGY & CATALYSIS
Molecular Engineering for a Post-Carbon Economy
The global energy transition is currently bottlenecked by a single factor: Material Limitations. Existing solutions rely on scarce noble metals (Platinum, Iridium) and fragile membrane architectures that drive up CAPEX and limit scalability.
The Clean Energy & Catalysis Division exists to solve the "Scalability Contradiction": how to increase energy density while simultaneously reducing system complexity and cost. We combine AI-driven materials discovery with microfluidic engineering to design energy systems that are not just "green," but economically superior to fossil fuel alternatives.
OUR MISSION: KINETIC EFFICIENCY To replace expensive, passive components with smart, active micro-architectures. We move beyond standard electrochemistry to design Membraneless Systems and Non-Precious Metal Catalysts that decouple energy production from geopolitical supply chain risks.
CORE CAPABILITIES
We engineer the reaction interface for maximum output:
1. Membraneless Fuel Cells & Electrolyzers Removing the Weakest Link.Standard fuel cells rely on expensive, fouling-prone ion-exchange membranes (PEM). We utilize Microfluidic Flow Control to separate reactants dynamically without a solid barrier.
The Advantage: Eliminates the most expensive component of the stack, dramatically increasing durability and reducing manufacturing costs by up to 40%.
Applications: Portable power packs, drone propulsion, and low-cost hydrogen production.
2. Non-Precious Metal Catalysis (The Platinum Replacement) Supply Chain Security.Using our AI Invention Engine, we screen thousands of alloy combinations to identify earth-abundant materials (Iron, Nickel, Cobalt based) that rival the catalytic activity of Platinum.
The Advantage: Drastic reduction in material cost and immunity to noble metal market volatility.
Applications: Gigawatt-scale electrolyzers and mass-market automotive fuel cells.
3. On-Demand Hydrogen Generation Safety by Design.We develop catalytic reactors that generate hydrogen instantly from liquid carriers or hydrides, eliminating the need for high-pressure storage tanks.
The Advantage: Solves the "Hydrogen Storage Problem" by treating hydrogen as a fuel-on-demand rather than compressed cargo.
Applications: Wearable electronics, emergency power, and safe maritime transport.
4. Carbon Capture & Utilization (CCU) Turning Liability into Asset.We design electrocatalytic systems that convert waste CO2 directly into value-added chemicals (formate, methanol, syngas) using renewable electricity.
The Advantage: Turns a carbon tax liability into a revenue-generating chemical feedstock stream.
OUR PROCESS: THE "ATOM-TO-SYSTEM" LOOP
We optimize energy systems across three scales simultaneously:
The Atomic Scale (AI Screening): We use Machine Learning to predict the binding energy of intermediates, identifying the optimal catalyst structure before synthesis.
The Meso Scale (Topology Optimization): We use 3D simulation to design porous electrodes that maximize mass transport, ensuring fuel reaches the active sites instantly.
The System Scale (TRIZ Integration): We apply algorithmic problem solving to simplify the balance-of-plant (pumps, valves, heat management), making the total system robust.
HOW TO ENGAGE
Energy Majors: Partner with us to develop "Drop-In" Catalyst Replacements for your existing refinery or electrolysis infrastructure.
Drone & EV Manufacturers: Commission a "Power Density Sprint" to develop custom micro-fuel cells that extend flight time beyond battery limits.
Chemical Producers: Engage us to design Electrification Pathways for your chemical synthesis processes, reducing industrial carbon footprints.
