お知らせ • Jul 09
VivoPower PLC Progresses Feasibility Study For Battery Energy Storage System Integration At Mo I Rana Data Center
VivoPower PLC announced that it is progressing a formal technical and commercial feasibility study for the integration of a battery energy storage system (BESS) at its 41.5 MW Mo i Rana data center in Northern Norway. The feasibility study is targeting incremental annualized EBITDA of up to approximately USD 4 million from BESS-enabled participation in additional Nordic reserve markets. Internal analysis, subject to external feasibility validation and prevailing Nordic reserve market clearing prices, indicates that a co-located BESS could enable participation in three additional Nordic reserve products that are not economically accessible to the site's compute load alone due to endurance, symmetry, and response-speed requirements. Reserve Product: FCR-N (Frequency Containment Reserve for Normal operation) - Symmetrical up/down regulation; not achievable from load alone; 1 hour endurance in each direction. Expanded FCR-D (Frequency Containment Reserve for Disturbances) - Additional volume beyond the current 12 MW enrolment without impact on tenant SLA; 20 minutes endurance. FFR (Fast Frequency Response) - Sub-second response speed only achievable from battery inverters; 0.7-1.3 second activation. The targeted incremental EBITDA of up to approximately USD 4 million per annum is derived from capacity payments under these three reserve products, valued at prevailing 2025-2026 Nordic clearing prices, and is subject to prequalification, feasibility outcomes, capital availability, and market conditions. As with the existing enrolment, capacity payments accrue on a pay-for-availability basis, with additional activation payments accruing separately. A co-located BESS, if implemented, would be designed to unlock reserve products that pure compute load cannot access, on a fully stackable basis with existing enrolment, extend ride-through and power quality resilience for AI tenants at Mo i Rana, preserve the site's full 41.5 MW leasable capacity for AI compute tenants, and provide operational optionality across future Nordic reserve products as the Nordic Balancing Model matures. Beyond ancillary services revenue, a co-located BESS is expected to enhance the site's suitability for modern AI compute workloads. AI training and inference workloads exhibit power draw characteristics that differ materially from traditional enterprise or hyperscale cloud workloads, and a well-designed BESS layer can improve the operating envelope available to tenants without changing the site's underlying power capacity or grid connection profile. Anticipated tenant-facing benefits include: Power quality and ride-through: Battery-backed inverters can smooth short-duration voltage sags, transients, and reconfiguration events on the upstream network, reducing the risk of unplanned interruptions to long-running training or high-availability inference workloads. Load-step buffering: AI compute clusters can transition rapidly between idle and full load, producing steep ramps at the point of connection; a BESS layer absorbs those ramps locally and presents a smoother profile to the grid, which is increasingly a condition of large-load connection agreements in the Nordics and elsewhere. Resilience and effective availability: Even in a grid as reliable as the Nordic synchronous system, BESS-backed ride-through raises the effective availability tier of the facility for tenants whose service credits, SLAs, or workload economics are sensitive to sub-minute interruptions. Sustainability profile: Nordic hydro-based power combined with on-site storage strengthens the low-carbon, high-efficiency positioning that AI compute tenants increasingly require from their infrastructure partners, without introducing on-site fossil generation. Optionality for future tenant requirements: As next-generation AI accelerators and rack architectures continue to evolve, on-site storage provides headroom to accommodate a wider range of tenant power profiles under the existing 41.5 MW connection. These benefits are complementary to, and do not replace, the site's existing tier-equivalent electrical and mechanical infrastructure. The feasibility study will quantify the incremental tenant value of these attributes alongside the ancillary services revenue opportunity. The feasibility study will assess electrical headroom at the existing point of connection, transformer and switchgear capacity, protection coordination, metering and settlement architecture, prequalification pathway with Statnett, and the interaction between BESS dispatch and tenant service level agreements. Any investment decision will be subject to completion of the study, Board approval, tenant consultation, and applicable Norwegian regulatory and grid-connection approvals.