gw - hydrohub gw scale electrolyser - ispt · 2019. 11. 15. · gw - hydrohub gw scale electrolyser...

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Contact ISPT: [email protected] GW - Hydrohub GW Scale Electrolyser A conceptual design, fit for implementation in 5 industrial regions, for a 1-GW electrolyser plant that is ready for start-up in 2025 - 2030 and that delivers H2 at an economically viable cost level. SI-20-07 Project number Peter Ripson Project leader(s) [email protected] E-mail Dow, Gasunie, Nouryon, OCI Nitrogen, Shell, Yara, Ørsted, Frames, ECN part of TNO, Imperial College, Utrecht University Partners 2 243 k€ Budget 2018-2022 Duration Incentive In the energy system of the near future a key role will be played by renewable electricity. This will feed the platform for green value chains with H 2 as intermediate for products (e.g. via the syngas platform or the ammonia platform), for mobility and for heating. The key technology in this value chain is H 2 production via electrolysis. Hydrogen production via electrolysis is currently done only at MW scale. However, to match the demand for hydrogen of the Dutch industry and to play a significant role in buffering the future intermittent power supply, a significant scale up is required of the electrolyser capacity at least to the GW scale. Objective Develop a conceptual design and a transparent cost estimation methodology, fit for implementation in 5 industrial regions, for a 1-GW electrolyser plant that is ready for start-up in 2025 – 2030 and that delivers H 2 at an economically viable cost level (reduction of total annualized costs is essential). Approach The project consists of 3 parts. These 3 parts are developed in close contact in an iterative process. Part 1 delivers a design of electrolyser stacks and modules, a heat management model, a CAPEX learning curve, an electrolyser operating model. Part 2 delivers the context of 5 industrial regions in terms of regional demands, infrastructure and plot size, including system integration options and feasibility assessment. Part 3 delivers a conceptual design, including balance of plants and the expected economics for plant erection in 2025-2030. 5 industrial regions Results The 3 parts of the projects have been started. First results of part 1 will be delivered in Q4 2019. For part 2 regional consortia have been formed and studies on infrastructure have been selected. For part 3 a baseline concept has been defined. Next steps Report on scale-up limitations. A first assessment plot size of the facility. Input of regions will be collected For part 3 a subsidy request will be submitted in Q4 2019. This project is co-funded by TKI-E&I with the supplementary grant 'TKI- Toeslag' for Topconsortia for Knowledge and Innovation (TKI’s) of the Ministry of Economic Affairs and Climate Policy.

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Page 1: GW - Hydrohub GW Scale Electrolyser - ISPT · 2019. 11. 15. · GW - Hydrohub GW Scale Electrolyser A conceptual design, fit for implementation in 5 industrial regions, for a 1-GW

Contact ISPT: [email protected]

GW - Hydrohub GW Scale ElectrolyserA conceptual design, fit for implementation in 5 industrial regions, for a 1-GW electrolyser plant that is

ready for start-up in 2025 - 2030 and that delivers H2 at an economically viable cost level.

SI-20-07Project number

Peter RipsonProject leader(s)

[email protected]

Dow, Gasunie, Nouryon, OCI Nitrogen, Shell,Yara, Ørsted, Frames, ECN part of TNO, ImperialCollege, Utrecht University

Partners

2 243 k€Budget

2018-2022Duration

IncentiveIn the energy system of the near future a key role will beplayed by renewable electricity. This will feed the platform forgreen value chains with H2 as intermediate for products (e.g.via the syngas platform or the ammonia platform), formobility and for heating. The key technology in this valuechain is H2 production via electrolysis. Hydrogen productionvia electrolysis is currently done only at MW scale.

However, to match the demand for hydrogen of the Dutchindustry and to play a significant role in buffering the futureintermittent power supply, a significant scale up is required ofthe electrolyser capacity at least to the GW scale.

ObjectiveDevelop a conceptual design and a transparent costestimation methodology, fit for implementation in 5 industrialregions, for a 1-GW electrolyser plant that is ready for start-upin2025 – 2030 and that delivers H2 at an economically viable costlevel (reduction of total annualized costs is essential).

ApproachThe project consists of 3 parts. These 3 parts are developed inclose contact in an iterative process.

Part 1 delivers a design of electrolyser stacks and modules, aheat management model, a CAPEX learning curve, anelectrolyser operating model.Part 2 delivers the context of 5 industrial regions in terms ofregional demands, infrastructure and plot size, includingsystem integration options and feasibility assessment.Part 3 delivers a conceptual design, including balance of plantsand the expected economics for plant erection in 2025-2030.

5 industrial regions

ResultsThe 3 parts of the projects have been started. First results ofpart 1 will be delivered in Q4 2019. For part 2 regional consortiahave been formed and studies on infrastructure have beenselected. For part 3 a baseline concept has been defined.

Next steps• Report on scale-up limitations.• A first assessment plot size of the facility.• Input of regions will be collected• For part 3 a subsidy request will be submitted in Q4 2019.

This project is co-funded by TKI-E&I with the supplementary

grant 'TKI- Toeslag' for Topconsortia for Knowledge and

Innovation (TKI’s) of the Ministry of Economic Affairs and

Climate Policy.