Condition & Health Monitoring in Power Electronics (PE) - Wide Band Gap PE for the energy sector
Closed
Status as published by the data source.
Expected Outcome:
Project results are expected to contribute to all the following outcomes:
a. Condition and Health Monitoring:
• Capability to anticipate failures of Power Electronics (PE) in wind farms and converters of the DC grid to prevent downtime.
• Techniques to set the equipment in limp mode to enable to withstand the stress until next maintenance.
• Demonstration of Condition and Health Monitoring (C&HM) for converters of wind turbines generators and HVDC converter stations or MVDC converters (solar energy). b. Wide Band Gap and Ultra-Wide Bandgap PE:
• Development of new semiconductor power device technologies, in particular Wide Bandgap (WBG) and ultra-wide Bandgap (UWBG) semiconductors
• Availability of more efficient Power Electronics components for the development of new generation of inverters, converters and other power equipment in the energy sector.
• Reduced space occupancy aiming mainly at offshore applications.
• Improved cost efficiency of power devices and semiconductor fabrication processes. Scope:
Projects are expected to implement both the activities in (1) and the practical demonstration (2) as described below:
1. R&I, methodologies and tools involving the activities listed below. These can be developed/complemented with others pertinent to each sub-topic.
A. Condition and Health Monitoring (C&HM):
• Estimation of junction temperature Tj based on TSEPs (thermo-sensitive electrical parameters). Here especially big challenge present SiC MOSFETS and Schottky diodes because the TSEPs sensitivity is lower, non-linear and depends on the built technology. Further issues are calibration, circuit drift, influence of PWM and other.
• Development of new and evaluation/further development of already existing unconventional techniques to measure temperature and estimate degradation (such as for example, but not limited to, Kelvin connection or acoustic based methods).
• Development and evaluation of new or already existing techniques for generating the lifetime models based on big-data analysis and by utilisation of soft computing techniques.
• Combination of (big) data-driven and physics-of-failure driven approaches in C&HM. B. Stress Steering:
• Successful business case realisation requires co-operation and communication between different partners:
• Manufacturers of power electronics components (for example to integrate sometimes-necessary sensors).
• System designer (to provide access to the data such as measured load cycles and general mission profiles).
• Companies responsible for operation and maintenance of the systems. Currently those companies are especially for offshore wind parks developing their own C&HM systems, which are operating, based on sometimes-scarce available data.
• Optimisation is possible when already initial products would be designed to obtain data/measurements needed in C&HM. For power electronics modules, the most valuable data seems to be Tj (junction temperature):
• Careful estimation of the costs of maintenance for specified applications (it seems they are currently underestimated).
• Investigation of different costs models (e.g., the final costs for C&HM can be absorbed by the producers especially when it is also responsible for maintenance, or it can be transferred to the final user whenever the final user can provide safer and more reliable service). C. Wide Band Gap and Ultra-Wide Bandgap PE:
Improvement of WBG and UWBG semiconductors for integration in HVDC and MVDC components. Work should focus on improving wide bandgap semiconductor devices, packaging and their integration in converter submodules:
• Improved WBG and UWBG power devices with better performance metrics, e.g., lower conduction losses, higher blocking voltage, better surge current capability, higher switching frequencies and better short-circuit capability.
• Advanced control circuits for WBG and UWBG based bridges.
• Improved packages featuring high-voltage insulation, high temperature operation, robustness, and low eddy currents.
• New submodule topologies for HVDC converters and/or new converter topologies for MVDC converters with WBG and UWBG semiconductors and better performance metrics, e.g., reduced losses, higher reliability, lower volume / weight, less costs.
• Implementing WBG and UWBG semiconductor devices for DC protection devices, e.g., DC breakers.
• Improved cost efficiency of components based on WBG semiconductors. 2. Demonstration, test and validation of the activities developed in (1) (A, B and C) in at least two pilots (all activities A, B and C developed for each pilot) in different EU Member States/Associated Countries.
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Activities are expected to achieve TRL 5-6 by the end of the project – see General Annex B.
- Status
- Closed
- Deadline
- (time not stated)
- Opens
- Published
- Total budget
- €13,000,000
- Grant range
- €4,000,000 – €4,000,000
- Country
- European Union (EU-wide)
- Programme
- Horizon Europe (HORIZON)
- Official page
- Open at the source portal
Other calls under Horizon Europe (HORIZON)
- PV based electrification of the economy: Designing & optimising PV systems supporting industrial electrification and promoting participation in electricity markets (EUPI-PV Partnership)
- Advanced TSO control rooms to enhance grid observability, stability and resilience
- Advanced Distribution Management Systems (ADSM) for more efficient and flexible distribution grids
- Community of practice - Data-Driven Decision-Making in Energy
- Industrial processes and equipment for innovative, reliable and scalable tandem technologies (EUPI-PV Partnership)
- Integrated Approaches for Retrofitting Infrastructures with Innovative Energy Storage Technologies
- Demonstration of hydropower technologies for efficient and forward-looking refurbishment of existing hydropower plants
- Delivery of industrial CCUS clusters – Societal Readiness pilot
All calls under this programme
Similar opportunities
- Innovative technologies and solutions to improve wind energy systems supporting the Strategic Energy Technology (SET) Plan on wind
- Development and integration of advanced software tools in SCADA systems for High, Medium and Low voltage AC/DC hybrid systems
- Demonstration of sustainable wave energy farms
- Development of innovative power take-off and control systems for wave energy devices
- Demonstrating efficient fully DC electric grids within waterborne transport for large ship applications (ZEWT Partnership)
- Achieving high voltage, low weight, efficient electric powertrains for sustainable waterborne transport (ZEWT Partnership)
Where this came from
- Source document
- https://ec.europa.eu/info/funding-tenders/opportunities/data/topicDetails/horizon-cl5-2024-d3-01-14.json
- Document fingerprint
becf7f16a1b73e55(SHA-256, first 16 hex characters)- Retrieved
- First recorded here
What has changed
- url first recorded as https://ec.europa.eu/info/funding-tenders/opportunities/portal/screen/opportunities/topic-details/horizon-cl5-2024-d3-01-14 on
- currency first recorded as EUR on
- amount_max first recorded as 4000000.00 on
- amount_min first recorded as 4000000.00 on
- budget_total first recorded as 13000000.00 on
- deadline first recorded as 2024-01-16 on
- opens_on first recorded as 2023-09-12 on
- published_on first recorded as 2022-12-07 on
- status_basis first recorded as source_status on
- status first recorded as closed on
- title first recorded as Condition & Health Monitoring in Power Electronics (PE) - Wide Band Gap PE for the energy sector on
Data source
© European Union, 2026. Source: EU Funding & Tenders Portal. Reused under Commission Decision 2011/833/EU — CC BY 4.0.
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The source last updated this document on Tue, 17 Feb 2026 17:23:30 GMT.
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