Alklysis produces hydrogen through a cyclic “alklysis” process that combines iron, steam, and methane in a single-stage reactor. The technology leverages a continuous reaction loop to generate hydrogen efficiently, targeting industrial energy applications and fuel‑cell markets.
Funding
Funding not disclosed
Founders
Product
Problem
Industrial hydrogen production relies heavily on electricity-intensive electrolysis or carbon-intensive steam methane reforming, leading to high costs and significant CO₂ emissions. Existing methods often lack scalability and flexibility for integration with renewable energy sources.
Solution
Alklysis offers a cyclic “alklysis” process that combines iron, steam, and methane within a single-stage reactor to produce hydrogen continuously. The system uses iron‑based catalysis to facilitate a looped reaction, integrating steam reforming and iron oxidation/reduction cycles to achieve higher efficiency than conventional electrolysis. By operating at lower electrical input and leveraging abundant feedstocks, the technology aims to deliver scalable, low‑cost hydrogen suitable for industrial energy applications and fuel‑cell markets. The single-stage design simplifies plant architecture, reducing capital expenditures and enabling modular deployment.
Target Audience
Primary customers are industrial hydrogen producers, energy utilities, and manufacturers of fuel‑cell systems seeking cost‑effective and lower‑emission hydrogen supply solutions.
Features
- Single-stage reactor that simultaneously conducts iron‑catalyzed steam reforming and cyclic iron oxidation/reduction
- Continuous reaction loop eliminates the need for separate electrolysis and reforming units
- Utilizes inexpensive iron catalyst and methane feedstock to lower operating costs
- Designed for modular scaling, allowing flexible capacity adjustments for industrial users
- Integrated heat management to improve overall energy efficiency compared to traditional methods