Engineered for R&D laboratories, battery cell gigafactories, EV powertrain testing, and industrial power electronics validation across Finland and the Baltic region.
High-speed automated cell grading, internal resistance (DCIR) calculation, and multi-channel charge/discharge capacity verification system.
Programmable constant power function testing equipment with microsecond transient response for portable device and module emulation.
Ultra-low noise coin cell emulator designed for electrochemical lab research, IoT micro-power analysis, and solid-state battery characterization.
Compact rack-mount DC simulator offering fast current sinking/sourcing, tailored for handheld device testing and BMS passive balancing check.
Megawatt-class bidirectional DC supply engineered for heavy industrial electric vehicle testing, grid storage simulation, and marine propulsion.
High-speed, dual-quadrant bipolar power supply for sensitive semiconductor, wireless sensor, and medical device power profiling.
Specialized laboratory battery simulator simulating programmable SOC voltage output and internal resistance for energy harvester validation.
Precision cell emulator with independent channel control, fault injection (open/short circuit), and balance current measurement for EV battery packs.
Why specialized modular power conversion architecture is essential for Northern Europe's rigorous industrial applications.
Unlike standard voltage-fed DC supplies that rely heavily on bulky output capacitor banks, our modular systems utilize a high-frequency current-fed inductor topology on the internal DC bus. In the cold climate of Finland (where capacitors suffer from ESR elevation at sub-zero temperatures), current-fed designs maintain exceptional short-circuit tolerance and zero-voltage turn-on characteristics.
Traditional power supplies deliver maximum rated wattage at only a single voltage-current intersection. Our modular DC systems deliver full rated power across a flexible, wide operating window (up to 300% current amplification at lower voltage stages). This enables Finnish engineering teams to test both high-voltage EV battery strings (up to 1000V) and high-current industrial electrolysis units with a single power supply.
Our scalable power modules incorporate an integrated high-speed digital communications bus (MagnaLINK™ architecture). Up to 100 individual power units or battery simulator racks can be linked seamlessly to operate as a unified 10 MW mega-system, ensuring simplified command structures via SCPI, Ethernet LXI, or LabVIEW driver suites.
Compare electrical ratings, mechanical form factors, and primary deployment environments for our complete export series.
| Series Platform | Power Output | Voltage / Current Range | Cooling Topology | Primary Industrial Application |
|---|---|---|---|---|
| SLx / SL 1U Micro Modular | 1.5 kW to 10 kW | 5V to 1000V / 1.5A to 250A | Forced Air (Front-to-Rear) | High-density automated ATE racks, laboratory testing at LUT and Aalto Universities. |
| XR Series 2U Mid-Range | 2 kW to 10 kW | 16V to 2000V / 2A to 600A | Forced Air (Internal Heatsink) | High-voltage insulation testing, solar PV string simulation, component burn-in. |
| TS Series 3U–16U Heavy Duty | 5 kW to 100 kW | 5V to 4000V / 12A to 2700A | Smart Air / Variable Speed | Heavy EV machinery powertrain validation (Ponsse/Sandvik), mining battery pack test. |
| MT Series Air Cabinet | 150 kW to 3 MW | 16V to 4000V / Up to 24,000A | Ducted Air Forced Exhaust | Hypersonic wind tunnels, plasma research, high-power electrolysis plant testing. |
| ML Series Liquid Cooled | 500 kW to 10 MW+ | 80V to 4000V / Multi-kA | Deionized Water Closed Loop | Continuous megawatt industrial processes, marine electrification test benches in Turku. |
Tailored DC power architectures answering the precise engineering requirements of Finnish manufacturing, green transition projects, and harsh Arctic operations.
Finland's West Coast battery industrial corridor (Vaasa, Kokkola, Harjavalta) is rapidly expanding as Europe’s premier hub for lithium-ion battery cell production and active cathode material processing. Our 24-Channel Battery Cell Simulators and high-precision DC testers are actively deployed in battery management system (BMS) Hardware-in-the-Loop (HIL) test beds. By simulating exact individual cell voltages down to ±0.2mV resolution, engineers can inject fault states (cell imbalance, over-temperature, short circuit) to validate safety shutdown algorithms under strict EU Battery Regulation guidelines without risking thermal runaway on actual physical packs.
Global OEMs of heavy forestry harvesters (Ponsse) and underground mining equipment (Sandvik, Normet) based in Finland lead the global transition from diesel engines to zero-emission battery electric vehicles (BEV). Our high-power Power Aikesaibo ABS High-Dynamic Battery Simulators (150-1000KW) emulate high-voltage traction batteries (up to 800V DC) under real-world dynamic load profiles. This allows powertrain engineers to simulate regenerative braking spikes, steep incline power draws, and sub-zero cold start stress testing down to -40°C without waiting for full battery charge cycles.
Finland's maritime sector leads in hybrid electric icebreakers, ferry vessels, and harbor tugboats. Our liquid-cooled ML Series (up to 10 MW) acts as shore-side DC power sources, battery bank emulators, and hydrogen fuel cell test loads. Operating quietly in enclosed shipyard environments near Helsinki and Rauma, liquid-cooled power supplies reject zero heat into the test room and resist corrosive sea-air environments through sealed, IP-rated enclosure options.
Finland’s massive expansion of onshore wind farms in Northern Ostrobothnia requires megawatt-scale Battery Energy Storage Systems (BESS) for Fingrid grid frequency containment reserves (FCR-N and FCR-D). Our high-power programmable DC supplies replicate real-time wind turbine power variations and cold-weather thermal battery degradation profiles, ensuring grid compliance and power factor stability before hardware installation.
How national decarbonization mandates and European technological sovereignty drive demands for high-reliability export power hardware.
Finland has committed to becoming the world's first fossil-free welfare society by 2035—significantly ahead of the broader EU 2050 target. Achieving this requires total electrification of industrial heat, transport, and raw material refining. Consequently, Finnish test facilities demand modular DC supplies that offer high energy efficiency (>93%), regenerative power sinking to minimize laboratory power consumption, and long-term operating durability.
With increasing reliance on intermittent wind energy, Finland's transmission system operator (Fingrid) enforces rigorous grid compliance rules for energy storage devices. Testing battery response times under milliseconds requires power supplies and battery simulators with sub-millisecond dynamic step response rates and programmable rise times—preventing frequency collapse during severe Nordic winter storms.
Leading research organizations like VTT Technical Research Institute of Finland and academic centers (Aalto University, LUT University in Lappeenranta) require highly open, programmable platforms. Standard inclusion of isolated analog I/O, Ethernet LXI, USB, and native Python / SCPI integration enables smooth integration into automated LabVIEW test rigs and custom digital-twin simulation software.
Vertically integrated engineering, complete quality traceabilty, and rapid international logistics directly serving the Nordic region.
From sheet metal fabrication and custom toroidal transformer magnetics winding to surface-mount SMT printed circuit board assembly and final high-power burn-in testing, every module is built under one facility roof. This total vertical control ensures zero reliance on vulnerable component supply chains and yields industry-leading lead times of 4 to 6 weeks for fully customized modular power systems—compared to the 20-30 week industry average.
All exported power supplies and battery simulators shipped into Finland fully comply with relevant European Union directives: Low Voltage Directive (LVD 2014/35/EU), EMC Directive (2014/30/EU), and Safety Requirements IEC/EN 61010-1. Products are shipped with comprehensive CE declarations, factory calibration certs, and specialized export packaging designed for ocean freight into Vuosaari Port (Helsinki) or expedited air cargo into Helsinki-Vantaa Airport.
Answers to common commercial, compliance, and technical questions from Finnish procurement officers and lab managers.
Thanks to our vertically integrated manufacturing process, typical made-to-order build times range between 4 to 6 weeks. Standard catalog units and low-power bench simulators are frequently stocked for expedited air shipping to Helsinki within 7-10 business days.
Yes. All modular power supplies and battery simulators exported to Finland are configured with standard European grid inputs: 380V / 400V / 415V AC 3-phase (+/- 10%), 50Hz. Single-phase 230V AC options are also available for laboratory bench models.
Absolutely. Using custom software interfaces or SCPI controls, engineers can program exact temperature-dependent internal resistance (DCIR) tables and state-of-charge (SOC) curves down to -40°C, accurately reproducing real-world Nordic winter operating conditions without freezing physical batteries.
All export equipment includes a standard factory warranty (extendable up to 5 years). Instrument calibration curves are stored digitally on internal microcontrollers. Calibration certs compliant with ISO/IEC 17025 are supplied with each unit, and remote diagnostic firmware updates can be performed over Ethernet.
Yes. We provide native National Instruments LabVIEW IVI-C and IVI-COM drivers, along with open SCPI command sets over Ethernet/LXI, USB, RS-232, and optional IEEE-488 GPIB or Modbus TCP. Python automation documentation is also provided for Linux environments.
Liquid-cooled (ML Series) units reject nearly 100% of heat into a closed water loop rather than ambient air. In Finnish climate-controlled cleanrooms or tight testing enclosures, liquid cooling prevents ambient overheating, eliminates fan acoustic noise, and protects sensitive internal electronics from atmospheric dust or humidity.
Consult directly with our senior application engineers to evaluate voltage, current, slew rate, and software integration for your Finnish project.