ECOPRIUS Energy Systems is a systems engineering office designing energy architectures at infrastructure level — from continuous electrical generation and hydrogen hubs, through thermal storage and energy conversion, to industrial thermal, cooling and process systems. We operate at the integration layer, where engineering decisions concern power balance, availability, energy quality and exergy efficiency — not individual devices.
We combine systems engineering with data-driven methods — Design of Experiments (DOE), Statistical Process Control (SPC), PI System / SCADA data analysis and dynamic process modelling — to design and validate infrastructure-class energy systems for industrial, power and investor markets.
Two engineering divisions
The ECOPRIUS competence structure is organised around two integrated engineering divisions. Strategic Energy Infrastructure designs the generation, storage and distribution layer — with the Kinetic Power Plant as continuous 24/7 electrical power supply and the hydrogen hub as the mechanism for energy time-shift and geographic transport. Applied Thermal & Industrial Systems delivers the thermal-process layer: industrial heat pumps, ORC, waste heat recovery, sorption and solar cooling, PCM systems, exergy machines and hygienic DHW. Both divisions operate on a single shared energy model of the facility.
Kinetic Power Plant — continuous 24/7 electrical power supply
KPP is engineered as continuous baseload generation — a weather-independent source of electrical power for industrial sites, hydrogen hubs and data centers. Grid-connected and islanded operation, with dynamic stability, power quality and black-start modelling in the ETAP environment.
Hydrogen hub — production, compression, storage, fuel cells, LOHC
Full hydrogen value chain: AEM/PEM electrolysis, high-pressure compression and storage, fuel cells, and LOHC (Liquid Organic Hydrogen Carrier) as the carrier for transoceanic logistics — including the export pathway to Japan. The hub serves as the conversion and time-shift layer of the energy system.
Electric-to-thermal conversion
High-power resistive heating systems acting as electric-to-thermal converters for high-temperature processes, molten-salt charging and integration with the hydrogen hub. A core element of the power-to-heat architecture at infrastructure level.
Thermal storage — molten salt & PCM
High-temperature molten-salt storage and PCM (Phase-Change Material) storage engineered as buffers between the generation layer and the consumption layer. Load-shifting, hydrogen production time-shift, thermal availability stabilisation and grid services.
DAC — air processing, adsorption loops, thermal integration
DAC (Direct Air Capture) engineered as a component of the air processing and adsorption-loop system: filtration, separation, sorbent regeneration. Thermal integration with data center cooling, the hydrogen hub and sorption storage — engineered at the level of thermal and process balance, without climate narrative.
Grid and energy distribution engineering
Distribution network design for KPP-grid architectures: load flow, short-circuit, contingency, protection coordination, dynamic stability, transient response, black-start. Grid-code compliance models for industrial connections and hydrogen hubs.
Industrial heat pumps, ORC, waste heat recovery
High-temperature industrial heat pumps, ORC (Organic Rankine Cycle) systems on waste heat, and high-efficiency heat exchangers upgrading low-grade process heat to process heat, steam and district-heating parameters.
HVAC, sorption cooling, solar cooling, PCM systems
HVAC systems for large-volume and industrial facilities, adsorption cooling with heat recovery, solar cooling, and PCM systems for peak buffering. Full BIM coordination (MagiCAD for Revit) with dynamic simulation (IDA ICE).
Exergy machines, hygienic DHW, hydraulic balancing
Exergy machines for optimised use of available thermal potential, hygienic fresh-water DHW systems (instantaneous DHW separated from buffer storage), hydraulic balancing and thermal-system design for multi-zone buildings.
Infrastructure-scale and international experience
PL DE US EU
Over 30 years of engineering experience in design, system integration and construction supervision — across Polish, German, US and other EU markets. Full investment lifecycle: from feasibility studies and techno-economic modelling (LCOH, CAPEX/OPEX, payback), through EPC contracts, to long-term SMOS agreements and continuous optimisation of the operating asset based on PI System / SCADA data.
We operate at systems-integrator level — defining architecture, technical responsibility boundaries, process interfaces and the energy balance model. Catalogue selection and equipment sizing follow as a consequence of the model, not as its starting point.
- KPP architectures — grid-connected and islanded (continuous baseload)
- Hydrogen hub — electrolysis, compression, storage, fuel cells, LOHC
- Molten-salt and PCM thermal storage for load-shift and time-shift
- Power-to-heat (resistive) as electric-to-thermal converter
- DAC — air processing and adsorption loops
- Industrial heat pumps, ORC, high-efficiency heat exchangers
- HVAC for large-volume and process facilities
- Data center and IT-facility cooling with heat recovery
- Exergy machines, hygienic DHW, hydraulic balancing
Engineering project delivery model
Energy problem analysis
Engineering audit
Variant simulation
Detailed design
Specification & procurement
Construction & commissioning
From energy analysis to system commissioning — with no fragmentation between independent designers, suppliers and contractors.
Six-stage engineering process — from analysis to commissioning
Simulation and computational environment
Every project architecture is validated in an infrastructure-class simulation environment — combining industry-standard energy engineering tools with process modelling platforms, BIM, and operational data analytics. Simulation conditions the investment decision, not the other way around.
MODELICA — Dynamic Simulation of PtX Processes
Modelica is added as the seventh pillar of the simulation environment — extending the classical toolset with dynamic multiphysics modelling for Power-to-X architectures, hydrogen hubs and digital twins of energy infrastructure.
- Dynamic electrolyzer load-following simulation
- Transient hydrogen storage response
- Methanation / ammonia synthesis dynamic kinetics
- Thermal inertia and heat recovery loop behaviour
- Compressor and pressure-drop transient modelling
- Integrated Power-to-X multiphysics digital twin
- AI-assisted predictive process state control
Simulation environments used in our design process
MODELICA — Dynamic Simulation of PtX Processes
Dynamic multiphysics modelling of AEM/PEM electrolysers, hydrogen storage, methanation and ammonia synthesis kinetics, and heat-recovery loops in Power-to-X architectures.
ETAP — Power System Analysis
Load-flow, protection coordination, dynamic stability, short-circuit, contingency and black-start models for KPP-grid network architectures and hydrogen hubs.
AVEVA — Hydrogen Process Modelling
Advanced electrolyser process models: degradation, cycle-count, performance benchmarking, calibration against production data from PI System / SCADA.
System modelling · dynamic simulation · architecture validation
Operational model for investment delivery
ECOPRIUS Energy Systems operates in a model combining a systems engineering office (Engineering Office) with a delivery, procurement and construction centre (Project Delivery & Logistics). The first unit is responsible for architecture, modelling and engineering supervision; the second for technical procurement, supplier coordination, material logistics and commissioning.
The two-unit model ensures an unbroken chain of engineering responsibility — from the first energy balance to the first stable operation of the system at design parameters.
Operational centres
Engineering Office
Design and analytical office
09-410 Płock
Project Delivery & Logistics
Procurement, supply and construction
41-208 Sosnowiec
