Advanced alkaline electrolyzer systems built for industrial-scale hydrogen production. Designed for high efficiency, long lifecycle, and seamless integration with renewable energy sources.
From pilot systems to utility-scale hydrogen production.
Low CapEx with high operational efficiency.
Designed for long-term industrial deployment.
Engineered green hydrogen systems delivering breakthrough efficiency, reliability, and cost-effective industrial deployment. Designed, built, and commissioned for scalable hydrogen production.
200 Nm³/hr Hydrogen
2000 Nm³/hr Hydrogen
20,000 Nm³/hr Hydrogen
| Model | H₂ Capacity | O₂ Capacity |
|---|---|---|
| SW-0.5 | 100 | 50 |
| SW-1 | 200 | 100 |
| SW-5 | 1000 | 500 |
| SW-10M* | 2000 | 1000 |
| SW-50M* | 10,000 | 5000 |
| SW-100M* | 20,000 | 10,000 |
*Modular configuration enables scalable capacity expansion.
Built for efficiency, durability, and real-world industrial deployment. Engineered to deliver consistent hydrogen output under dynamic operating conditions.
Over 80% stack efficiency ensures optimized energy utilization and lower operating cost per unit hydrogen.
Compact stack architecture with pressurized operation enables higher output density and reduced footprint.
Advanced separation ensures high-purity hydrogen suitable for industrial and energy applications.
Non-metallic polar frame eliminates electro-corrosion, improving system stability and longevity.
Low degradation rate ensures long operational life with minimal performance drop over time.
Quick response to renewable energy fluctuations with faster start/stop cycles for operational flexibility.
Alkaline water electrolyzers split water into hydrogen and oxygen using electrical energy. Splitwaters systems use advanced bipolar stack architecture, where multiple electrolysis cells are arranged in series to maximize efficiency and output.
KOH electrolyte circulates through the stack enabling efficient ion transfer.
Hydrogen is generated at the cathode, while oxygen is produced at the anode.
Biphasic mixtures are separated using gas-electrolyte separation systems.
Water vapor and electrolyte are removed to ensure high purity output gases.
Scalable green hydrogen solutions across sectors where decarbonization, reliability, and cost efficiency matter most.
Fuel cell mobility for heavy-duty fleets, rail, and logistics.
High ImpactGrid balancing, storage, and renewable energy integration.
Core SectorLow-carbon steel production and industrial heat replacement.
DecarbonizationFuture-ready sustainable aviation fuels and hydrogen propulsion.
EmergingGreen ammonia production replacing fossil-based hydrogen.
Clean hydrogen feedstock for chemical and refining processes.
High-purity hydrogen for propulsion and cryogenic systems.
Large-scale production hubs and distribution ecosystems.