Products

SOE+ 20 MW

Industrial SOEC Electrolyser System.

Conceptual rendering of the SOE+ 20 MW system

Overview

The SOE+ 20 MW is a modular industrial Solid Oxide Electrolyser System designed for large-scale hydrogen production. Powered by Dynelectro’s proprietary AC:DC architecture, it delivers industry-leading efficiency, ultra-low degradation and dynamic operation in a scalable containerised platform. Enabling industry-leading SOEC stack lifetimes of 7–10 years under industrial operating conditions.

Engineered with precision

Each 20 MW system is designed for seamless integration into existing industrial plants and scalable installation for multi-MW configurations.

Documented performance

  • Low stack degradation – enable 5x SOEC stack lifetime extension due to alternating AC/DC operation – <0.05% stack degradation per 1,000 hours
  • Increase H2 output – 50% higher hydrogen output per power unit vs. Alkaline / PEM electrolysis
  • Reduced cost – 20% lower LCOH vs. other PtX technologies
  • Dynamic operation / Variable Load Following – ideal for fluctuating renewable input
  • Ancillary Grid Service offering possible – flexible operation enables availability for FFR / FCR / FRR capacity offerings

Technical Specification:

ELECTRICAL RATING
Max. System power consumption 20 MW
Power consumption (stack) 33.5 kWh/kg (3 kWh/Nm³)
Power consumption (system) 37.8-40 kWh/kg H₂ (3.4-3.6 kWh/Nm³ H₂)
System electrical efficiency with heat integration ≈ 87% (electrical)
System electrical efficiency w/o heat integration > 72% (electrical)

HYDROGEN PRODUCTION
Max. Production rate Up to 540 kg/h (10,800 Nm³/h)
Operational pressure 0.025 bar(g)
Hydrogen purity (dry) > 99.9 %
Hot start-up time <10 minutes
Dynamic operation 5-100% load (idle to full load)
Dynamic load change response time < 30 sec (5-100%)
WASTE HEAT / STEAM INPUT
Operational pressure 4.5-6 bar(g)
Temperature 150-200 °C
Consumption 7320 kg/h
ADDITIONAL SPECIFICATIONS
Ambient temperature -20 °C to +40 °C
Footprint Approx. 60 X 32m
Stack lifetime <0.05 % degradation per 1,000 hours