SydroPOWER® delivers hydrogen fuel cell power solutions across portable, stationary, mobility and maritime applications, helping businesses generate dependable power without combustion.
Hydrogen fuel cells generate electricity without combustion. When operating on pure hydrogen, they produce zero carbon emissions, helping sites respond to tighter air-quality, permitting and carbon requirements.
Diesel generators require regular oil changes, filter replacements, SCR/DPF maintenance and other combustion-related servicing, while fuel logistics and noise-control measures add further operational burden. Fuel cell systems remove many of these requirements, helping simplify day-to-day operation and maintenance.
Fuel cells generate electricity electrochemically, achieving approximately 50–60% electrical efficiency compared with 30–40% for conventional diesel generators, thereby converting a greater proportion of fuel energy into usable power.
Without the combustion cycle of conventional diesel engines, fuel cell systems can operate at substantially lower noise levels, typically producing around 40–60 dB compared with approximately 70–90 dB for diesel generators.
Explore hydrogen power for your application—from portable field equipment and vehicles to stationary generation and marine systems. Match your power and integration requirements with the SydroPOWER® range, then discuss the right configuration with our team.
From portable 300W power to megawatt-scale stationary generation, SydroPOWER® offers solutions across portable power, automotive, off-grid systems and marine applications.
Compact Hydrogen Power for Portable and Mobile Applications
SydroPOWER Air™ brings hydrogen fuel cell power to applications where a large stationary generator is not practical. The range supports portable equipment, remote systems, drones and backup power, with different configurations available depending on whether the priority is portability, integrated energy storage or higher mobile power.
Available Models
Portable Power for Small Field Loads
Designed for lower-power equipment such as sensors, monitoring systems and portable lighting, KZ300 provides a compact hydrogen power source for applications that need dependable power away from fixed infrastructure.
Output
300W
Voltage
24V
Weight
<15 kg
Dimensions (mm)
355×240×260
Configuration / Key Features
—
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Sensors and monitoring
Supports remote sensing, communications and monitoring equipment where access to fixed electrical infrastructure is limited.
Portable lighting
Provides an alternative power source for temporary or mobile lighting requirements.
Small backup loads
Supports lower-demand standby equipment without requiring a larger generator system.
A Self-Contained Power System for Remote Deployment
KZ300 Turnkey combines fuel cell generation, battery capacity and hydrogen storage into a single system, reducing the number of separate components required to deploy a complete power solution.
Output
300W
Voltage
24V
Weight
140 kg (incl. H₂ storage + battery)
Dimensions (mm)
550×370×1000
Configuration / Key Features
Li-battery 100Ah + MH H₂ 1.1kg + ACFC. Maritime-ready.
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Remote field systems
Combines the main power and energy-storage components required for standalone field deployment.
Monitoring and communications
Supports lower-load equipment in remote locations where simplified installation is important.
Backup applications
Provides an integrated power route where sourcing and connecting multiple separate components would add complexity.
Portable Power for Higher-Demand Equipment
KZ3000 extends portable hydrogen power to equipment that requires more energy than small sensors or lighting loads. Its modular platform also provides a pathway to higher power requirements without immediately moving to a larger stationary system.
Output
3 kW
Voltage
48V
Weight
30 kg
Dimensions (mm)
485×412×405
Configuration / Key Features
Stackable for higher power
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Field equipment
Supports portable electrical equipment with greater demand than smaller sensor and lighting loads.
Temporary power
Provides mobile generation for temporary operations where a larger stationary generator is unnecessary.
Backup systems
Supports higher-demand standby loads within a portable system architecture.
Expandable Power Around a Common Platform
The stacked configuration allows multiple KZ3000 units to work together, supporting applications where power requirements may exceed a single portable unit or increase over time. Additional capacity can be added as needed, giving operators a flexible, modular way to increase available power using the same platform.
Output
>3 kW (expandable through multiple units)
Voltage
48V
Weight
—
Dimensions (mm)
Multi-unit rack
Configuration / Key Features
Multiple KZ3000 in stacked config
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Expandable field power
Allows additional generation capacity to be added when application demand increases.
Temporary site systems
Supports larger temporary loads through multiple units operating within the same platform.
Modular backup
Provides a modular approach to standby generation where future power requirements may change.
Lightweight Fuel Cell Power for Airborne Platforms
KZ3000F is developed for weight-sensitive applications including drones and UAVs, where reducing power-system mass leaves more capacity available for payload or operating range.
Output
3 kW
Voltage
24V (custom)
Weight
8.1 kg
Dimensions (mm)
295×265×190
Configuration / Key Features
Mass Power Density 370 W/kg · Drone-optimised
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Drones and UAVs
Supports airborne platforms where power-system weight directly affects available payload and flight capability.
Weight-sensitive mobile systems
Provides hydrogen power where reducing system mass is a key design consideration.
Higher-Power Fuel Cell Systems for Larger UAVs
KZ6000F extends the lightweight platform to applications with greater onboard power demand, supporting larger drones and mobile systems that need more electrical power without introducing a much heavier generation system.
Output
6 kW
Voltage
24V (custom)
Weight
12 kg
Dimensions (mm)
460×265×200
Configuration / Key Features
Mass Power Density 500 W/kg · Drone-optimised
Certifications / Approvals
CE · IEC 62282 · IEC 61000 · GB/T 30084
Higher-demand drones and UAVs
Supports larger airborne platforms with greater onboard electrical requirements.
Weight-sensitive mobile equipment
Provides increased available power while retaining the lightweight characteristics required for mobile applications.
PEM Fuel Cell Stacks for Custom System Development
SydroPOWER Stack™ is intended for manufacturers and system integrators that want to engineer their own fuel cell system around the stack. Rather than prescribing the complete powertrain architecture, the MZ-M range gives customers greater control over balance-of-plant, packaging, controls and power electronics.
Available Models
For Compact Fuel Cell System Architectures
MZ111-M4L provides a starting platform for manufacturers developing lower-power fuel cell systems where packaging space and integration flexibility are important.
Power (Nominal / Peak)
111 / 116 kW
Volumetric Power Density
4.1 kW/L
Maximum Operating Temperature
95°C
Cold Start
-30°C
Dimensions (mm)
389×473×148
Platform
M4 Low
Certifications / Approvals
CE · IEC 62282 · IEC 61000
System integrators
Provides the fuel cell stack while allowing the wider system architecture to be developed around specific project requirements.
Vehicle OEMs
Supports OEM programmes where greater control over packaging, balance-of-plant and controls is required.
For Higher-Power Systems Within the M4 Platform
MZ163-M4H supports manufacturers that need greater available power while retaining the M4 architecture, providing a step between the compact M4 Low platform and the larger M5 system.
Power (Nominal / Peak)
163 / 198 kW
Volumetric Power Density
4.2 / 5.1 kW/L
Maximum Operating Temperature
95°C
Cold Start
-30°C
Dimensions (mm)
558×473×148
Platform
M4 High
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Higher-power system integration
Supports system developers that require more available stack power while maintaining control over the surrounding system design.
Vehicle OEM programmes
Provides a higher-output M4 platform for vehicle architectures developed around a customer-defined balance-of-plant.
For More Demanding High-Power System Integration
MZ247-M5H is intended for higher-power vehicle and equipment platforms where greater stack performance and stronger low-temperature capability are required.
Power (Nominal / Peak)
247 / 261 kW
Volumetric Power Density
6.1 / 6.5 kW/L
Maximum Operating Temperature
95°C
Cold Start
-40°C
Dimensions (mm)
700×613×338
Platform
M5 High
Certifications / Approvals
CE · IEC 62282 · IEC 61000
High-power system architectures
Supports custom fuel cell systems with greater power requirements.
Demanding mobility platforms
Provides a stack-level integration route for higher-power vehicles and equipment operating across more challenging conditions.
Integrated Fuel Cell Powertrains for Vehicle Manufacturers
SydroPOWER Drive™ reduces the amount of fuel cell system engineering required around the stack by combining it with the supporting systems needed for vehicle integration. The range supports vehicle manufacturers across passenger transport, commercial vehicles and heavy-duty applications.
Available Models
Fuel Cell Power for Passenger and Light Commercial Vehicles
MZ90-P4L is designed for lighter vehicle platforms where efficiency and an appropriately sized integrated powertrain are more important than maximum available power.
Nominal Power
90 kW
Nominal Efficiency
60%
Mass Power Density
551 W/kg
Maximum Operating Temperature
95°C
Cold Start
-30°C
Dimensions (mm)
785×660×620
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Passenger vehicles
Provides an integrated fuel cell route for passenger vehicle platforms.
Light commercial vehicles
Supports lighter commercial vehicle programmes requiring a complete fuel cell powertrain rather than stack-level integration.
Integrated Power for Buses and Coaches
MZ140-P4H supports larger passenger-transport platforms, providing an integrated fuel cell system for buses and coaches that require more sustained propulsion power than lighter vehicles.
Nominal Power
140 kW
Nominal Efficiency
43%
Mass Power Density
676 W/kg
Maximum Operating Temperature
95°C
Cold Start
-30°C
Dimensions (mm)
882×678×643
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Buses
Supports public and commercial transport platforms requiring integrated hydrogen fuel cell propulsion.
Coaches
Provides a higher-power route for larger passenger vehicles operating over longer duty cycles.
High Power-to-Weight for Heavy-Duty Mobility
MZ220-P5H is suited to heavy trucks and mining vehicles where high available power must be balanced against system mass and demanding operating conditions.
Nominal Power
220 kW
Nominal Efficiency
48.5%
Mass Power Density
890 W/kg
Maximum Operating Temperature
95°C
Cold Start
-40°C
Dimensions (mm)
1243×760×960
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Heavy trucks
Supports higher-load commercial vehicles requiring increased propulsion power.
Mining vehicles
Provides an integrated fuel cell system for demanding off-road and mining applications.
Higher Available Power for Heavy-Duty Platforms
MZ260-P4X is positioned for heavy-duty vehicles and mining equipment with greater propulsion demand, providing the highest-power route within the current SydroPOWER Drive™ portfolio.
Nominal Power
260 kW
Nominal Efficiency
46.5%
Mass Power Density
783 W/kg
Maximum Operating Temperature
95°C
Cold Start
-30°C
Dimensions (mm)
1050×729×968
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Heavy-duty vehicles
Supports vehicle platforms with greater continuous propulsion requirements.
Mining and heavy equipment
Provides higher available fuel cell power for demanding industrial mobility applications.
Containerised Hydrogen Power for Sites and Infrastructure
SydroPOWER Grid™ provides a more complete route to stationary hydrogen power by integrating fuel cell generation with power electronics and safety management. The containerised systems support applications such as EV charging, microgrids, backup power and combined heat and power without requiring customers to assemble the generator from individual subsystems.
Available Models
Distributed Power for Smaller Sites and Infrastructure Loads
MZ100T is suited to applications such as EV charging, backup generation and smaller microgrids where additional local power is required without moving to a megawatt-scale installation.
Output
100 kW
Voltage
400 – 720 V
Operating Temperature
-20°C to 45°C
Enclosure Type
10-ft ISO container
Key Features
IoT Enabled · Modular · Multi-fuel Ready · Rapid Deploy
Certifications / Approvals
CE · IEC 62282 · IEC 61000
EV charging
Provides local generation where charging demand exceeds or supplements available grid capacity.
Backup power
Supports commercial and infrastructure sites requiring an alternative source of standby power.
Smaller microgrids
Provides distributed generation for local energy systems that do not require megawatt-class capacity.
More Capacity for Larger Distributed-Power Requirements
MZ200T supports sites with greater power demand while retaining a modular containerised architecture, making it suitable for larger charging hubs, microgrids and distributed generation projects.
Output
200 kW
Voltage
400 – 720 V
Operating Temperature
-20°C to 45°C
Enclosure Type
10-ft ISO container
Key Features
IoT Enabled · Modular · Multi-fuel Ready · Rapid Deploy
Certifications / Approvals
CE · IEC 62282 · IEC 61000
EV charging hubs
Supports sites with higher simultaneous charging demand.
Microgrids
Provides modular generation for larger local energy systems.
Backup and distributed generation
Supports facilities requiring additional site power without immediately moving to a megawatt-scale system.
Megawatt-Class Power for Industrial and Energy Infrastructure
MZ1000T is intended for larger industrial sites, microgrids and grid-support applications where hydrogen generation needs to operate as a significant part of the site’s energy infrastructure. Its on-grid/off-grid and CHP capability also supports projects requiring more than standalone backup generation.
Output
1 MW (Peak 1.2 MW, 30s)
Voltage
380 V (up to 10 kV)
Operating Temperature
-20°C to 45°C
Enclosure Type
40-ft ISO container (12.2×2.44×2.59 m)
Key Features
On/Off-grid · CHP-ready · Intelligent Control · Zone Safety · Fire Suppression · High Altitude
Certifications / Approvals
CE · IEC 62282 · IEC 61000
Industrial sites
Provides megawatt-class generation for larger facility loads.
Microgrids and grid support
Supports distributed generation, peak management and wider energy-system integration.
Combined heat and power
Enables projects to make use of both generated electricity and recoverable heat.
Hydrogen Fuel Cell Power Developed for Marine Integration
SydroPOWER Marine™ provides a fuel cell generation route specifically developed for vessels, ports and offshore applications. The platform combines marine-oriented system design with seawater cooling, supporting customers as they integrate hydrogen power into maritime projects.
Available Models
Marine Fuel Cell Power for Vessels and Offshore Projects
MZ250N is designed for projects where a conventional land-based generator cannot simply be transferred into the marine environment. Its marine enclosure, seawater cooling and Bureau Veritas assessment provide a more suitable engineering starting point for vessel and offshore integration.
Output
245 kW (Peak 255)
Voltage
600 V
Operating Temperature
Marine-rated
Enclosure Type
Custom marine enclosure (2.10×1.30×2.23 m)
Key Features
Seawater-cooled · Fuel Flexible · BV AiP + BDA
Certifications / Approvals
Bureau Veritas Approval in Principle (AiP) + Basic Design Appraisal (BDA)
Vessels
Supports onboard fuel cell generation integrated into vessel electrical systems.
Ports
Provides a marine-oriented power route for harbour and port applications.
Offshore projects
Supports offshore installations requiring fuel cell generation designed around marine operating conditions.
Across critical infrastructure, industrial sites, transport hubs and remote environments, SydroPOWER® supports the same backup, temporary, distributed and off-grid power needs traditionally addressed by diesel generators.
Quiet backup and distributed power for hospitals, data centres, telecom towers and commercial buildings.
Temporary and distributed power for construction, mining, industrial parks and events.
Grid augmentation and distributed power for EV charging, ports, airports and logistics hubs.
Primary or backup power for island microgrids, research sites and disaster-response operations.
Supported by over 300 pieces of testing equipment and over 70 safety, durability and performance test items, SydroPOWER® systems can be evaluated against real operating requirements to help verify readiness for real-world performance.
Verify how the selected SydroPOWER® system delivers power, efficiency and voltage stability across its operating range.
Testing support can include
Power output verification across defined operating loads, efficiency and fuel-to-electricity performance evaluation, voltage and system-behaviour assessment under steady operation, and load-profile testing against application requirements.
Assess how the system responds when electrical demand changes during operation.
Testing support can include
Step-load and transient response evaluation, response and recovery assessment during changing demand, load-following behaviour under variable duty profiles, and power-delivery stability during fluctuating operation.
Evaluate how system performance and stability change during extended operation and repeated duty cycles.
Testing support can include
Extended operating and cycling evaluation, performance-stability assessment over repeated duty cycles, degradation tracking during continued operation, and reliability review under sustained system use.
Evaluate system behaviour across temperature, altitude and cold-start conditions relevant to the intended operating environment.
Testing support can include
Environmental testing from -50°C to +65°C, altitude validation from 0 to 5,000 metres, cold-start evaluation for selected low-temperature systems, and thermal-condition assessment across challenging operating environments.
Assess protection functions, fault response and shutdown behaviour when operating conditions move outside defined limits.
Testing support can include
Protection-function assessment under abnormal conditions, fault-response and shutdown-sequence evaluation, system-behaviour review outside normal operating parameters, and safety-related operating checks for engineering review.
Evaluate electrical behaviour and electromagnetic compatibility to support integration with downstream equipment and the wider electrical architecture.
Testing support can include
Electrical-behaviour assessment across the system interface, compatibility evaluation with downstream electrical equipment, power-electronics integration review, and EMC-related validation for system deployment.
Testing scope: These capabilities support system development, comparative evaluation and qualification work. Sydrogen is not represented as an accredited third-party certification body. The test matrix, equipment route and acceptance criteria are agreed for each application, with independent certification or external validation identified separately where required.
From defining the requirement to delivering power on site, this is what working with Sydrogen looks like.
01
Share your required power, load profile, runtime and site requirements. A suitable SydroPOWER® architecture can then be identified.
02
Define the load profile, site layout, hydrogen supply route and system configuration. A concept configuration can then be developed for review.
03
Following scope approval, the system is engineered, manufactured and factory tested.
04
The system is delivered, commissioned and safety-validated together with the operating team.
05
Monitor system performance and expand system capacity as power requirements evolve.
Continue exploring Sydrogen’s technologies, proven applications and solutions across the hydrogen ecosystem.
Every SydroPOWER® project starts with a conversation.
Tell us your power requirements, runtime, site conditions and hydrogen supply approach, and we will help shape the right system configuration for your application.
SydroPOWER® is Sydrogen’s hydrogen fuel cell power portfolio for portable, mobility, stationary and marine applications. The portfolio spans SydroPOWER Air™ for portable and remote power, SydroPOWER Stack™ for OEM fuel cell stack integration, SydroPOWER Drive™ for integrated vehicle fuel cell engines, SydroPOWER Grid™ for containerised stationary generation, and SydroPOWER Marine™ for maritime projects.
Across the current portfolio, standard products range from 300 W portable systems to 1 MW stationary generation.
A hydrogen fuel cell generator produces electricity electrochemically rather than through combustion. When operating on pure hydrogen, SydroPOWER® can generate electricity with zero carbon emissions at the point of power generation, while also supporting quieter operation, higher electrical conversion efficiency and fewer combustion-related maintenance requirements than a conventional diesel generator.
Project economics, runtime and fuel logistics still depend on the load profile, site conditions and available hydrogen supply.
The current SydroPOWER® portfolio covers approximately 300 W to 1 MW of standard product output, with different ranges developed for different applications.
SydroPOWER Air™ covers portable power from 300 W to 6 kW+; SydroPOWER Stack™ covers 111 to 247 kW nominal stack output; SydroPOWER Drive™ covers 90 to 260 kW integrated fuel cell engines; SydroPOWER Grid™ covers 100 kW, 200 kW and 1 MW stationary systems; and SydroPOWER Marine™ currently includes the MZ250N at 245 kW rated output.
The right product line depends first on the application and the level of system integration you need. Choose SydroPOWER Air™ for portable, remote or UAV power; SydroPOWER Stack™ when your engineering team wants the fuel cell stack as the core of a customer-defined system; SydroPOWER Drive™ for an integrated fuel cell engine in vehicle programmes; SydroPOWER Grid™ for packaged stationary generation; and SydroPOWER Marine™ for vessels, ports and offshore projects.
The Solution Finder above narrows the standard portfolio by application, output and integration requirement before an engineering review confirms final suitability.
Choose a fuel cell stack when the OEM or system integrator wants greater control over the balance-of-plant, controls, packaging and wider system architecture. SydroPOWER Stack™ provides MZ-M stack platforms for this type of customer-defined integration.
Choose SydroPOWER Drive™ when a vehicle programme requires a more integrated fuel cell engine with supporting systems prepared for vehicle-level integration, reducing the amount of engineering required around the stack itself.
Yes. SydroPOWER Drive™ provides integrated fuel cell engines across passenger, bus and heavy-duty mobility applications. The MZ90-P4L supports passenger and light commercial vehicle platforms, MZ140-P4H supports buses and coaches, and the MZ220-P5H and MZ260-P4X support heavy-duty vehicles, mining equipment and higher-power mobility applications.
Vehicle OEMs that prefer to build more of the surrounding fuel cell system can also evaluate compatible SydroPOWER Stack™ platforms.
Yes. SydroPOWER Air™ is the portable and mobile power line within the portfolio. KZ300 supports small field loads such as sensing, monitoring, communications, portable lighting and lower-demand backup power. KZ3000 and stacked configurations support higher kilowatt-scale field power, while KZ3000F and KZ6000F are positioned for weight-sensitive drone and UAV applications.
Yes. SydroPOWER Grid™ is the containerised stationary power line for backup generation, EV charging, microgrids and distributed power. MZ100T provides 100 kW for smaller sites and infrastructure loads, MZ200T provides 200 kW for larger charging hubs and microgrids, and MZ1000T provides 1 MW for industrial sites, larger microgrids, grid-support and CHP-ready projects.
Selected Grid™ systems support both on-grid and off-grid operating configurations.
Yes. SydroPOWER Marine™ is developed specifically for maritime integration. The MZ250N provides 245 kW rated output with a 255 kW peak rating, a custom marine enclosure, seawater cooling and Bureau Veritas Approval in Principle and Basic Design Appraisal context.
The platform is positioned for vessels, ports and offshore projects where a conventional land-based generator architecture cannot simply be transferred into the marine environment.
The hydrogen supply route depends on the site, runtime and available infrastructure. Potential routes include delivered hydrogen cylinders, tube trailers, on-site electrolysis, industrial byproduct hydrogen, and pipeline hydrogen or hydrogen blends.
The appropriate supply strategy should be assessed together with required power, operating hours, storage approach and project location.
Selected SydroPOWER Stack™ and SydroPOWER Drive™ models support cold-start capability down to -30°C or -40°C, depending on the model. Sydrogen’s broader validation capability includes environmental testing from -50°C to +65°C and altitude validation from 0 to 5,000 metres.
Final operating suitability depends on the selected product, system configuration and application requirements.
Start with the application’s continuous or nominal power requirement, peak load, runtime or duty cycle, operating environment and required level of system integration. Site conditions, packaging, electrical interface, hydrogen supply and project-specific requirements also affect final selection.
The SydroPOWER® Solution Finder can narrow the standard portfolio, after which Sydrogen can review the load profile and project requirements to confirm the appropriate model and configuration.
Sydrogen supports engineering validation across power and performance, dynamic load response, durability and reliability, environmental and cold-start conditions, safety and protection, and electrical and EMC behaviour. The current validation section references more than 300 pieces of testing equipment and more than 70 safety, durability and performance test items.
Testing supports engineering evaluation and qualification work and is not represented as accredited third-party product certification.
