BUY IP ENERGY · DEEP-TECH DEVELOPMENT
Energy concepts · IP pathways · faster adoption
Get insight into energy IP — and move earlier toward first-market adoption.
Deep tech is one of the hardest technology sectors to move from idea to real-world use. We develop energy concepts from existing scientific and engineering foundations, then explore new methods, architectures and operating approaches that can push performance further in ways that are measurable, testable and compatible with today’s development capabilities.
Physics-first conceptsEvidence-led validationFunding strategyConsortium building
IP DEVELOPMENT FRAMEWORKFrom principle to protectable development path
OUR POSITIONOpen to new ideas. Strict on evidence.
We are interested in concepts that challenge current performance boundaries, but the development case must be tied to known principles, defined assumptions and a testable route to proof.
WHAT IP MEANS HERE
More than a patent. A development advantage that can be evaluated.
For energy deep tech, intellectual property is most useful when technical novelty, evidence, ownership, implementation knowledge and the commercialization route are developed together.
Define the new technical contribution.
We distinguish the established scientific foundation from the new configuration, control method, architecture, process, integration method or operating strategy that creates the development opportunity.
Make the IP position understandable.
Where applicable, the project can be structured around patentable elements, know-how, development rights, licensing options and diligence materials. Exact ownership and rights are project-specific and are disclosed under the appropriate agreements.
Connect protection to deployment.
The goal is not protection for its own sake. The goal is a clearer route for a capable partner to understand the concept, assess the evidence and move faster into validation, integration and market development.
HOW WE DEVELOP ENERGY IP
Start with what already works. Change the method, geometry, control or integration to seek a measurable gain.
We focus on concepts that have a real technical foundation. Instead of claiming a new physical law, we ask whether known principles can be combined, controlled or implemented differently to improve the performance of an existing system.
Identify the foundation
Map the existing technology, relevant physical principles, constraints and accepted performance limits.
Define the improvement mechanism
Describe exactly why the new method could improve efficiency, controllability, operating range, power density, thermal behavior, stability or another measurable parameter.
Model before claiming
Translate the idea into assumptions, boundary conditions, reference cases, simulations and measurable success criteria.
Design the fastest meaningful test
Choose the smallest experiment or engineering demonstrator that can distinguish the concept from the baseline and expose failure modes early.
Build the IP and partner package
Organize technical documentation, IP strategy, required expertise, facilities and the role each consortium member needs to play.
Prepare the next TRL step
Use evidence from each stage to justify the next development environment, larger test, industrial partner or funding application.
ENERGY IP PROGRAMS
One development framework. Three independent technical domains.
The common method comes first: define the foundation, isolate the proposed improvement, establish an IP position, test against a baseline and plan the next TRL step. From this point onward, the technical programs are kept separate because fusion, hydrogen storage and photovoltaics require different physics, engineering teams, validation methods and funding routes.
01 · FUSIONMagnetic plasma shapingStellarator equilibrium, plasma response and staged validation.
02 · HYDROGENGHR-100 storage reactorMetal-hydride storage, thermal management and hydrogen distribution.
03 · PHOTOVOLTAICPhoton-management cellTop-cell optical architecture and higher photon utilization.
01 · FUSION ENERGY
Localized magnetic plasma shaping for stellarator research.
This program investigates whether a controlled external magnetic perturbation can create a measurable and reproducible plasma response while the stellarator equilibrium remains the primary confinement system. It is treated as a fusion R&D program with its own modelling, transport and experimental-validation path.
3D magnetic equilibrium and stellarator confinement.
The concept starts from established stellarator and magnetohydrodynamic frameworks rather than proposing a new physical law.
Can localized external shaping produce a useful measurable response?
The target is evidence of a controlled response in flow, profiles or transport, compared with a defined unperturbed baseline.
Equilibrium → transport → controlled plasma test.
DESC / VMEC++ review is followed by transport analysis, controlled tests, curved-field validation and only then stellarator-relevant integration.
02 · HYDROGEN STORAGE
GHR-100 — Hydrogen Reactor.
GHR-100 is a separate solid-state hydrogen-storage development program built around a TiFe-based hydride bed, a functionally graded internal architecture, dedicated hydrogen distribution and integrated thermal management. Its purpose is to address heat-transfer and gas-distribution limits that can constrain usable charging and discharging performance.
Separate cooling and H₂ transport paths.
The concept separates coolant circulation and hydrogen delivery so thermal management and gas distribution can be optimized independently across the TiFe bed. Cooling fluid and hydrogen are intentionally kept in different channels.
Faster charging demands proportionally higher average H₂ uptake.
For the same target hydrogen capacity, shortening the charging time raises the required average uptake rate and the associated thermal duty. The design question is therefore not only capacity, but whether heat and mass transfer can support the requested rate reliably.
Coupon → ~1 L → ~5 L → 20–25 L → 100 L.
The development roadmap separates manufacturing, hydraulic/thermal, coupled hydrogen and scale-up risks before committing to the full engineering module. Current analytical values remain provisional until CAD, simulation and experimental validation are completed.
Current maturityCalculation / pre-simulation phase. The project documentation explicitly identifies 3D CAD, CFD/CHT, structural analysis and physical testing as later validation requirements.
03 · PHOTOVOLTAIC CELL
Top-cell photon-management architecture.
This is a separate photovoltaic concept focused on the optical design of the upper cell region. The development hypothesis is that a redesigned top-cell geometry could retain or redirect a larger fraction of incident photons within the active structure, increasing the effective optical path and potentially improving usable absorption.
Photovoltaic conversion and optical management.
The concept builds on known solar-cell physics: reflection, transmission, absorption, carrier generation and optical-path management.
Can the top-cell geometry reduce optical losses without creating larger electrical or thermal penalties?
The relevant comparison is against a reference cell under the same illumination, temperature and electrical operating conditions.
More usable electrical output — not a claim of energy storage inside the cell.
If photon utilization improves without unacceptable recombination, resistance or thermal losses, more electrical power could be available to a downstream battery, storage system or grid interface. Optical and electrical testing must demonstrate the gain.
Development disciplineOptical simulation → reference-cell comparison → fabricated test structure → measured spectral/electrical response → scale and manufacturability review.
FUNDING & CONSORTIUM STRATEGY
The concept needs the right development environment, not only the right idea.
We map the expertise, facilities, funding routes and decision points needed to move a concept toward credible validation and later industrial adoption.
Match the concept to the right funding stage.
We identify relevant European, national, strategic-industry and private funding routes based on technical maturity, risk, consortium requirements and validation needs.
Bring in the missing capabilities.
Depending on the project, this may include simulation experts, universities, research institutes, test facilities, engineering partners, manufacturers, diagnostics teams and commercialization partners.
Define what must be proven next.
Each partner and funding phase is tied to a technical milestone, measurable output and explicit decision rule for continuing, changing direction or stopping.
Reduce avoidable time between stages.
By preparing technical scope, validation logic, partner roles and funding strategy together, a promising concept can move into the right test environment with less fragmentation.
PATH TO HIGHER TRL
Advance only when the evidence supports the next step.
High-risk energy concepts benefit from clear gates. The purpose of the roadmap is to convert uncertainty into evidence before committing to larger facilities, more complex integration or industrial scaling.
BUY IP ENERGY
Looking for an energy concept you can evaluate, develop and adopt early?
Discuss available development programs, project-specific IP position, licensing or collaboration structures, and the technical evidence required before a larger commitment.