Both projects — FlyInGS and AdD HyStor — are explicitly built around flywheel technology for grid applications.
ADAPTIVE BALANCING POWER GMBH
German SME developing adaptive flywheel and hybrid energy storage systems for dynamic electrical grid stabilization.
Their core work
Adaptive Balancing Power (ABP) is a German technology SME specializing in flywheel-based and hybrid energy storage systems designed to stabilize electrical grids. Their core product combines adaptive flywheel technology with battery storage to provide fast-response frequency regulation and dynamic grid balancing — services increasingly critical as renewable energy penetration increases grid volatility. In H2020, they both led a feasibility study for flywheel grid stabilization (FlyInGS) and joined a larger consortium to demonstrate a full adaptive flywheel/battery hybrid system at scale (AdD HyStor). Their commercial proposition sits at the intersection of energy storage hardware and grid ancillary services.
What they specialise in
AdD HyStor targets 'dynamic grid stabilisation' and FlyInGS focuses on 'Increased Grid Stability' as their stated objectives.
AdD HyStor (EUR 835,398) specifically demonstrates an 'Adaptive-flywheel/battery Hybrid energy Storage' system.
FlyInGS was funded under SME Instrument Phase 1, indicating ABP pursued a structured feasibility and business case development path.
How they've shifted over time
Both projects are dated to 2017, which makes meaningful temporal evolution analysis impossible with this dataset — there is no early vs. late period to compare. What the project sequence does suggest is a deliberate two-track strategy in that year: a small self-led concept study (FlyInGS, SME-1, EUR 50k) running alongside participation in a much larger demonstration project (AdD HyStor, IA, EUR 835k), indicating ABP was simultaneously validating their business case and proving technology at scale. No keyword data was available from CORDIS to supplement this inference.
ABP appears to be moving from feasibility studies toward real-world demonstration of hybrid flywheel-battery systems, suggesting they are approaching commercial readiness in grid ancillary services — a market expanding rapidly with the energy transition.
How they like to work
ABP works in very small, focused consortia — just 3 unique partners across their entire H2020 portfolio. They have taken on both coordinator and participant roles, suggesting flexibility, but the small network size indicates they are selective or early-stage in building partnerships. The SME Instrument project, where they coordinated independently, points to a company comfortable driving its own agenda rather than relying on larger partners to lead.
ABP has collaborated with only 3 unique partners across 3 countries in H2020 — an exceptionally small network for an organization at this stage. Their geographic reach is European but narrow, and no repeated partner relationships are detectable from this data.
What sets them apart
ABP occupies a rare niche: flywheel energy storage for grid balancing is a less crowded space than lithium battery storage, and ABP's adaptive hybrid approach (flywheel + battery) differentiates them from pure-play flywheel or pure-play battery companies. As a small German SME in Darmstadt — close to major energy infrastructure and research hubs — they are positioned to serve both German and European grid operators seeking fast-response storage alternatives. A consortium builder looking for a specialized storage technology SME with demonstrated EU project experience would find few direct equivalents.
Highlights from their portfolio
- AdD HyStorThe flagship project — a full demonstration of adaptive flywheel/battery hybrid storage for grid stabilization, with the largest budget (EUR 835,398) and a multi-year timeline through 2020.
- FlyInGSABP's only coordinator role in H2020, funded under the competitive SME Instrument Phase 1, signaling the project was assessed as commercially viable and strategically led by ABP itself.