Editorial hero for “Renewable Hydrogen Demonstrator for an Industrial Agglomeration”: infrastructure, people and the project’s core technical intervention, without implying that the project is complete.
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Source project ID · Hydrogen

Renewable Hydrogen Demonstrator for an Industrial Agglomeration

A 2 MW PEM electrolyser paired with 4 MW of solar capacity is designed to produce up to 245 tonnes of hydrogen per year.

Contact for this project

01

Agglomeration relevance

It could connect industry, utilities, universities and technical talent across the agglomeration; no regional hydrogen network is yet evidenced.
This section is an editorial assessment of functional relevance. It does not change the project owner, beneficiary area or governance stated by the source.

02

Project dossier

The project in operational terms: the system it changes, the intervention logic, the path to delivery and the evidence still required for a responsible commitment.

01

The system behind the project

A 2 MW PEM electrolyser paired with 4 MW of solar capacity is designed to produce up to 245 tonnes of hydrogen per year. Kryvyi Rih has industrial demand but no proven local hydrogen chain. It could connect industry, utilities, universities and technical talent across the agglomeration; no regional hydrogen network is yet evidenced. The demonstrator is an industrial-chain test, not evidence of a regional hydrogen market. Its functional agglomeration role depends on a bankable offtaker, renewable electricity traceability, lawful water supply and safe interfaces among the utility site, industry, grid and research capacity.

02

How the intervention works

The project combines solar generation, water polishing, electrolysis and safe storage at the aeration-station site, creating a demonstrator whose climate value depends on verified renewable electricity and real offtake. The process train must connect 4 MW solar generation and grid interface, power conversion, water polishing, 2 MW PEM stacks, drying and purity control, compression, storage and controlled delivery. Metering must prove electricity provenance and mass balance. Hazard zoning, ventilation, leak and flame detection, pressure relief, fire separation, emergency shutdown and remote supervision belong to the base design.

03

From concept to an operable asset

Secure a qualified offtake specification and operating profile before freezing plant size. Confirm water quality and balance, solar and grid studies, then complete HAZID, HAZOP, hazardous-area classification and permitting. Factory tests precede integrated cold and hot commissioning. Ramp-up must verify purity, specific electricity, water use, availability, losses and storage cycles before any annual-output or climate claim is accepted. The source describes a feasibility-stage demonstrator and does not evidence contracted offtake, permits, financing, construction or production.

04

What must be proven before commitment

Due diligence for the hydrogen demonstrator must verify binding offtake quantity, purity, pressure, price and delivery responsibility; renewable-power provenance and additionality method; water rights and treatment reject; grid constraints; electrolyser degradation; storage inventory; ATEX and fire case; permits, insurance, staffing and emergency response. It must stress-test capital, electricity price, curtailment, utilisation, replacement, logistics and all revenue, emissions and NPV forecasts. No hydrogen volume, carbon benefit or revenue should be treated as achieved until calibrated meters, verified power attributes and accepted customer deliveries support it.

05

Where a partner can create value

Required capabilities include PEM electrolyser and solar EPC integration, industrial water polishing, power electronics and grid protection, hydrogen compression and storage, process control, ATEX electrical design, functional safety, HAZOP leadership, fire response, gas-quality laboratories, lifecycle assessment, qualified industrial offtake and project finance. The operator needs certified procedures, spares, competency records and drills; independent engineers must witness performance and safety acceptance. The system integrator must own guarantees across electrolyser, power conversion, water polishing, compression and controls while specialist safety review remains independent.

03

How the project creates value

  1. NeedKryvyi Rih has industrial demand but no proven local hydrogen chain.
  2. InterventionThe project combines solar generation, water polishing, electrolysis and safe storage at the aeration-station site, creating a demonstrator whose climate value depends on verified renewable electricity and real offtake.
  3. OutputsA 2 MW PEM electrolyser paired with 4 MW of solar capacity is designed to produce up to 245 tonnes of hydrogen per year.
  4. BeneficiariesIt could connect industry, utilities, universities and technical talent across the agglomeration; no regional hydrogen network is yet evidenced.
  5. Expected resultExpected effect: A 2 MW PEM electrolyser paired with 4 MW of solar capacity is designed to produce up to 245 tonnes of hydrogen per year.

04

Evidence dashboard

Hydrogen output245Target
Scope 2 emissions reduction1640Forecast
First-year revenue1850000Forecast
20-year net present value400000Forecast

European value lens

Industrial decarbonisation, safety by design, innovation and a just transition for an industrial region.

05

Indicative launch scenario

The dates refresh automatically: the scenario begins on the first day of the next month and preserves the source-defined project duration and relative stage sequence.

Scenario start
Scenario completion
  1. 01

    Offtake, safety and detailed design

  2. 02

    PV, electrolysis and water-treatment delivery

  3. 03

    Safety validation and commissioning

Scenario dates support planning only. They are not evidence of an approved calendar, procurement or financing commitment.

06

Source identity and readiness

Customer
Kryvyi Rih City Council
Performer
CE “Kryvyi Rih City Development Institution”
Project year
2026
Readiness
Investment feasibility study included in the SPP of Kryvyi Rih City Territorial
Funding required
€6.5 million
Source target term
24 months
Detail status
Active

07

Project context from the source

Optimised derivatives of the source project imagery; each asset retains its provenance.

08

Contact for this project

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Source captured and verified on 24 August 2026

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