CorPower Ocean and CorPack: can a heart‑inspired wave converter scale to utility size with EIC backing?
- ›CorPower Ocean claims a wave energy converter that captures more than five times the power per unit of equipment compared with earlier technologies and is resilient in storm conditions.
- ›The EIC Accelerator funded the CorPack project to standardise the technology into modular 10–30 MW clusters and to develop a turnkey product aimed at 600 MW installed by 2032.
- ›CorPower reached a TRL 7 demonstration after 14 years of staged development but faces familiar barriers for marine renewables including financing, consenting, supply chains and proving competitive levelised cost of energy.
- ›EIC support provides funding and validation but achieving utility-scale deployments will require further capital, grid and port logistics, long lead times and stronger evidence of long-term reliability and economics.
CorPower Ocean and CorPack: can a heart inspired wave converter scale to utility size with EIC backing?
CorPower Ocean is a Swedish deep tech company that has spent the better part of a decade developing a wave energy converter inspired by the pumping mechanics of the human heart. The company says its patented Wave Energy Converter captures more than five times the power per amount of equipment compared with previous devices and can survive extreme ocean conditions, including measured storm waves up to 18.5 metres on its machine at Aguçadoura. Backed by the European Innovation Council Accelerator, CorPower is packaging the technology into standardised clusters called CorPacks and targeting an initial 600 megawatts of installations by 2032. The project blends engineering progress with a long and familiar list of industry hurdles that remain unresolved for ocean energy to become a mainstream utility resource.
How the technology works and what has been demonstrated
From prototype to product: the CorPack concept
Instead of selling single machines CorPower has redefined its offering as a modular, turnkey cluster product called CorPack. Each CorPack is designed as a building block comprising a cluster of devices, a collection hub and shared anchoring and electrical infrastructure. CorPack units are sized in the company description at 10 to 30 megawatts and multiple CorPacks are intended to be laid out side‑by‑side to form utility‑scale farms of hundreds of megawatts to gigawatt scale.
| Item | Detail | Source / notes |
| CORDIS Grant agreement ID | 101218387 | CORDIS project sheet |
| EU contribution to CorPack project | €2,499,999 | CORDIS declared Net EU contribution |
| Project dates | Start 1 July 2025 End 30 June 2027 | CORDIS project information |
| Targeted installed capacity | 600 MW by 2032 | Company and CORDIS project objectives |
| Claimed efficiency improvement | More than 5x power per equipment | Company claims; requires independent validation at farm scale |
| Demonstration status | TRL 7 after five staged demonstrations | CORDIS and company statements |
| CorPack capacity | 10–30 MW per cluster | Company product definition |
What CorPower says it took to reach this point
The development path CorPower describes mirrors standard best practice for complex marine systems. The company began small with tank tests at FEUP (Porto University) and benchtop drive train testing at the Royal Institute of Technology in Stockholm. It progressed through five staged product demonstrations, working with research institutes such as WavEC before installing sea prototypes and achieving certified, operational devices. The CEO says the team deliberately avoided premature full‑scale deployments and bootstrapped early years with grants and university collaboration while keeping costs low and proving physics before inviting venture capital.
Finance, bankability and the role of the EIC
The EIC Accelerator award provides non trivial support both financially and reputationally. For ocean energy the transition from single device to bankable farm requires three linked items. First there is further capital to fund farm engineering, consenting and pre‑installation work. Second there is robust evidence of device reliability and predictable operations and maintenance costs over multiyear timeframes. Third there is buyer and investor confidence that the technology will deliver a credible levelised cost of energy. EIC funding helps with item one and partially with item two through certification and demonstration programmes. It does not remove the need for larger downstream project finance, grid arrangements or long lead time port and supply chain investments.
Industry context, comparisons and realism
CorPower and other ocean energy proponents present an expansive vision for the sector. The company cited a potential equal to or greater than global nuclear or hydro capacity and predicted revenues in the order of €15 billion by 2050 if the technology scales. Those figures are indicative rather than prescriptive. Historical experience in wave energy is an instructive counterpoint. Over decades many concepts have struggled with survivability, costs and long project lead times. By contrast floating wind and fixed offshore wind have benefited from larger industrial ecosystems, clearer regulatory pathways and stronger investor familiarity.
Non‑technical barriers that will shape success
Even if hydrodynamic performance and survivability are validated, several non‑technical factors will determine whether CorPack and similar concepts reach commercial scale. These include consenting and environmental impact assessments, interactions with fisheries and shipping, port and installation logistics, local supply chain capacity, rules for offshore grid connections and revenue mechanisms such as power purchase agreements or merchant markets. Certification regimes for marine energy devices are maturing but remain a friction point for raising commercial finance.
What the CorPack project specifically covers
The CorPack project on CORDIS is framed as the development of a turnkey building block for scaling the WEC into utility‑scale wave farms. The project description and grant record emphasise standardisation, an engineering package for the CorPack cluster and the ambition to reach final investment decision on initial farm projects. The declared EIC net contribution for the project is €2,499,999 and the project runs from July 2025 to June 2027. That funding can accelerate engineering and commercial preparation but is modest relative to the capital required for full farm construction and grid integration.
Implications for investors, utilities and policy makers
For investors and utilities the critical questions will be about long term durability, predictable operations costs and the shape of returns after initial demonstration. For policy makers the question is how to create enabling frameworks that can safely support early commercial deployments without locking public money into technologies that fail to reduce costs as planned. The EIC Accelerator model provides an important early mechanism to derisk technology development and provide a quality signal but downstream financing, regulatory clarity, and industrial policy will be decisive for scaling.
A cautious but constructive view
CorPower Ocean’s engineering pathway and staged testing demonstrate prudent technical development and the company has cleared meaningful hurdles to reach TRL 7. That is a necessary precondition for commercialisation. The technology’s claims deserve independent validation at array scale and over multiyear operations. The EIC’s funding and validation stamp matter for investor confidence but they are not a substitute for the larger capital, supply chain maturity and regulatory adaptation required to achieve the company’s 600 MW by 2032 target. Observers should watch closely for third‑party performance data, independent environmental monitoring, confirmed procurement contracts and the first farm final investment decisions.
About CorPower Ocean and a personal note
Founded in 2012 by CEO Patrik Möller and inventor Stig Lundbäck, CorPower Ocean positions itself as a Swedish deep tech company aiming to make wave power a cost effective mainstream energy source. The invention was inspired by the heart’s pumping mechanics and progressed via tank tests at FEUP and WavEC, benchtop work at KTH and five staged product demonstrations. The company reports having about 120 staff from 25 countries and says it took 14 years to reach proven technology ready to scale. In the interview the CEO said if he could spend a day at sea with anyone on energy and ocean issues it would be David Attenborough, reflecting a desire to align technological ambition with environmental stewardship.
Key milestones and next indicators to watch
| Milestone | Why it matters | What to look for |
| Certification and operational data | Confirms durability and energy yield | Independent measurements of capacity factor and multiyear availability |
| CorPack engineering package completion | Needed to standardise manufacture and installation | Detailed technical packs, repeatable installation methods and supply chain commitments |
| First farm final investment decision (FID) | Signals bankability and access to large capital | Signed contracts, PPA or sovereign backing, financing arrangements |
| Environmental monitoring results | Determines consenting and social licence | Peer reviewed or regulator‑accepted environmental impact reports |
| Serial manufacturing agreements | Drives down unit costs | Factory contracts, procurement pipelines and port logistics |
CorPower’s trajectory illustrates how slow and capital intensive ocean energy development can be and how important staged demonstrations and third party validation are. The EIC Accelerator funding and attention are useful enablers. Translating a validated WEC into multi‑hundred megawatt farms remains a large engineering and financing challenge with many moving parts outside a single developer’s control.

