Future Builder,
HD Hydrogen
As a Future Builder leading new future businesses, we focus on fuel cells and water electrolysis,
core technologies for carbon neutrality and hydrogen economy.
Growing as a specialized company
in SOFC/SOEC main equipment based on 3rd generation SO (Solid Oxide) technology, we are preparing to
enter the maritime and electrolyzer markets. We are accelerating business expansion and technological
innovation by acquiring Convion, which has unique technological capabilities in the SO field.
HD Hydrogen's solid oxide fuel cells are optimized for land-based power plants and distributed power supply based on high efficiency and stability. Achieving over 60% electrical efficiency and 80% total energy efficiency through waste heat utilization, they can be used in various applications, including large-scale power generation, data centers, industrial complexes, and commercial buildings. It provides a sustainable energy supply by minimizing greenhouse gas emissions.
Large-Scale Power Generation
Microgrid
Commercial Building
Data Center
Biogas
3rd generation solid oxide fuel cells are innovative solutions suitable for ships' main propulsion systems and auxiliary power supply. High-temperature operation enables the use of various fuels, dramatically reducing emissions compared to existing diesel engines, meeting IMO (International Maritime Organization) environmental regulations. HD Hydrogen's technology can be applied to large commercial vessels, cruise ships, and offshore platforms, leading the maritime industry's decarbonization through design that considers safety and space efficiency.
Propulsion
Auxiliary Power
AMP, Alternative
Maritime Power Supply
HD Hydrogen's solid oxide electrolyzer technology produces hydrogen at high efficiency by simultaneously utilizing electrical and thermal energy through high-temperature operation. This technology can economically produce 'green hydrogen' in connection with renewable energy and can be utilized in various fields, including industrial processes, energy storage, and transportation fuel.
Clean Hydrogen Power Generation
Industrial Hydrogen Production
A Sustainable Future Connected by Hydrogen
Designing the Energy Ecosystem from Production to Utilization
| Outputs | |
|---|---|
| Power output(net AC) | 285 kW |
| Voltage | 3ph, 380V |
| Frequency | 50/60 Hz |
| Inputs | |
|---|---|
| Fuel | Natural Gas |
| Input Fuel pressure | 4barg |
| Water | None during normal operation |
| Emissions | |
|---|---|
| NOx | Negligible |
| SOx | Negligible |
| CO | ≤ 20 ppm |
| VOCs | Negligible |
| CO2@ nominal load, BoL | 330 kg/MWhe |
| Physical Attributes and Environment | |
|---|---|
| Weight(w/skid) | 32.7 ton |
| Dimensions(w/skid) | 13 m (L) x 2.1 m (W) x 2.7 m (H) |
| Temperature range | -20°C - 45 °C (-4 °F to 104 °F) |
| Humidity | 0-100% |
| Seismic vibration | TBD |
| Location | Outdoor |
| Noise | <65 dBA @ 10 ft (3 m) |
| Codes and standards | |
|---|---|
| Safety | KESC, IEC 60079, IEC 62282 |
| EMC | KESC IEC 62282-3 |
| Grid Interconnection | KESC IEC 62282-3 |
| Efficiency | |
|---|---|
| Electrical efficiency @ BoL | ≥ 60% @ (LHV net AC) |
| Electrical efficiency @ EoL | ≥ 48% @ (LHV net AC) |
| Outputs | |
|---|---|
| Power output(net AC) | 60 kW |
| Voltage | 3ph, 380V |
| Frequency | 50/60 Hz |
| Inputs | |
|---|---|
| Fuel | Natural Gas |
| Input Fuel pressure | 4barg |
| Water | None during normal operation |
| Emissions | |
|---|---|
| Nox | Negligible |
| Sox | Negligible |
| CO | ≤ 20 ppm |
| VOCs | Negligible |
| CO2@ nominal load, BoL | 330 kg/MWhe |
| Physical Attributes and Environment | |
|---|---|
| Weight(w/skid) | 5.9 ton |
| Dimensions(w/skid) | 2.8 m (L) x 2.1 m (W) x 2.3 m (H) |
| Temperature range | -20°C - 40 °C (-4 °F to 104 °F) |
| Humidity | 0-100% |
| Seismic vibration | TBD |
| Location | Outdoor |
| Noise | <70 dBA @ 10 ft (3 m) |
| Codes and standards | |
|---|---|
| Safety | KESC, IEC 60079, IEC 62282 |
| EMC | KESC IEC 62282-3 |
| Grid Interconnection | KESC IEC 62282-3 |
| Efficiency | |
|---|---|
| Electrical efficiency @ BoL | ≥ 60% @ (LHV net AC) |
| Electrical efficiency @ EoL | ≥ 48% @ (LHV net AC) |
| General Specification | |
|---|---|
| Power Connection | |
| AC connection | 400 VAC |
| Power intake | 249 kW |
| Steam feedstock | |
| Pressure | 2.5-4.0 bar-g |
| Temperature | 200-250 °C |
| Flow, self-regulated | 71 kg/h |
| Product Gas | |
| Hydrogen production | 6.4 kg/h |
| Hydrogen fraction [1] | 80 %-mol |
| Temperature | 200-350 °C |
| Pressure | 1-30 mbar-g |
| Sweep Air Exhaust | |
| Oxygen content | 30-33 %-mol |
| Temperature | ~200 °C |
| Energy Performance | |
| Electrolysis efficiency [2] | 85 %-LHV |
| Steam consumption [3] | 11.1 kg H2O / kg H2 |
| Power consumption | 38.8 kWhe / kg H2 |
| Installation | |
|---|---|
| Ingress protection class | IP53 |
| Temperature | -20 … +40 °C |
| Altitude | 0 … 1000m |
| Dimensions | 3.1m (L) *2.1m (W) *2.7m (H) |
| Installation | Outdoor by default, indoor possible |