Imagine the power grid as a giant spinning wheel that keeps electricity steady; as we switch to solar, we lose that heavy wheel and the grid becomes shaky. This project builds a smarter 'electronic brain' for solar panels that mimics that stability and prevents blackouts. It also adds a health-check system to tell you when parts are wearing out before they actually break.
The shift to solar energy has removed the natural stability (inertia) of power grids, increasing the risk of blackouts. Additionally, current inverters often lack the interoperability and health monitoring needed to prevent costly downtime.
A 100 kW bidirectional inverter and SiC-based topologies for ≥2 kV operation, paired with a cybersecurity platform and health monitoring system.
If you are a solar farm operator dealing with energy curtailment and grid instability — this project developed SiC-based inverter topologies that enable operation at ≥2 kV. This allows for direct MV connection, reducing energy losses and increasing overall yield.
If you are a DSO dealing with the risk of blackouts due to low system inertia — this project developed control algorithms providing synthetic inertia and dynamic current injection. This reduces the need for costly grid reinforcements and improves resilience.
If you are an inverter manufacturer dealing with high failure rates and maintenance costs — this project developed integrated condition and health monitoring. This enables predictive maintenance and extends the lifetime of the hardware.
Based on available project data, specific pricing is not provided, but the objective is to ensure cost-effective integration and reduce costly grid reinforcements.
The project is developing a 100 kW bidirectional four-wire inverter and topologies capable of operation at ≥2 kV.
Based on available project data, specific licensing terms are not mentioned, though the project involves 15 partners including 9 industry members to ensure industrial uptake.
The project period runs from 2026-05-01 to 2030-01-31, with validation up to TRL7.
It uses a harmonised data space and a real-time cybersecurity platform to ensure interoperability across distributed energy resource assets.
The consortium is heavily industry-driven with a 60% industry ratio (9 out of 15 partners), including 3 SMEs. This strong commercial presence, combined with 2 universities and 3 research organizations across 8 EU countries, suggests a high likelihood of commercial translation and alignment with market needs.
Contact FUNDACION CIRCE in Spain
Contact us to connect with the SUNVIBE consortium for TRL7 pilot opportunities.
