WBS Power to Build 3.2 GW Baltic Data Center Campus
WBS Power launches large-scale Baltic campus
WBS Power S.A. has announced plans for a hyperscale data center campus near Lublewo in Choczewo, Poland, with a planned nameplate capacity of 3.2 GW. The build will be staged as four equal modules of 800 MW each, and company statements indicate that grid connection conditions for the full site footprint have already been secured — a milestone that moves the project beyond site-selection risk into detailed execution planning.
Preparatory civil and technical work is targeted for completion by end-2027, with initial operations expected in the 2028–2029 window. The campus is designed as an energy-first deployment: siting adjacent to a major substation to enable megawatt-scale connections, pairing on-site and contracted renewable generation with utility-scale battery energy storage systems (BESS), and retaining flexibility for conventional or prospective nuclear supply as regional mixes evolve.
WBS emphasises integration of high-efficiency electrical distribution, low-emission energy corridors and platforms architected to interoperate with hyperscalers and cloud providers. The developer is simultaneously advancing a separate 500 MW project in Finsterwalde, Germany, reflecting a regional roll-up strategy for energy-integrated compute capacity.
The WBS announcement sits alongside smaller, modular Baltic projects that are pursuing complementary technical priorities. For example, a newly opened 10 MW site in Riga (with room to expand to ~30 MW) highlights trends that differ in scale but align on energy and efficiency: modular operators are investing in sub-1.3 PUE targets, advanced free-cooling and direct-to-chip liquid cooling, certification pathways (Uptime Institute) and reuse of waste heat into municipal networks. That smaller project — reported to cost in the region of €30m to operationalize — illustrates how operators are pursuing faster, capital-efficient rollouts while marketing verified resilience and sustainability to international customers.
These contrasting builds — single-site megawatt campuses versus modular local facilities — reveal two concurrent market responses to capacity constraints: large energy-integrated campuses that internalize generation and storage to satisfy hyperscaler ramp profiles, and smaller, efficiency-focused centers that prioritize rapid go-to-market, validated uptime and local decarbonization measures such as heat reuse and renewable-backed backup fuels.
From a market perspective the WBS campus crystallizes second-order effects: concentrated demand for transmission upgrades and PPA volumes, greater competition for renewable offtake contracts, and compressed schedules for permitting, specialized labor and grid reinforcement. Technical risks remain material — long-lead grid works, power quality (inertia and capacitor management) under dense IT loads, and validated BESS cycling strategies — and these often extend advertised timetables.
Operationally, the campus design intent to blend renewables, BESS and conventional backup mirrors the diversified approaches seen across the region; however, other projects show a willingness to experiment with renewable diesel for generator backup or aggressive liquid cooling to reduce energy draw and enable modular scalability. These differences may produce market segmentation: hyperscalers seeking aggregated, on-demand megawatts may favor WBS-style campuses, while latency-sensitive or sustainability-driven tenants may select certified, high-efficiency modular sites.
For infrastructure investors and utilities, the announcement signals both opportunity and concentration risk. On the upside, large-scale builds will accelerate procurement of generation and batteries, expand specialist construction spending and raise the profile of ancillary markets. On the downside, a single large campus can create localized price cascades in capacity and ancillary services markets and invite regulatory scrutiny that could blunt early margin assumptions.
Taken together, WBS Power’s 3.2 GW plan and contemporaneous smaller Baltic projects illustrate a maturing European compute market that is bifurcating by scale and energy strategy. Execution — driven by permitting, financing and multi-year grid upgrades — will determine whether the theoretical capacity gains translate into usable, resilient compute for AI, cloud and HPC workloads.
Read Our Expert Analysis
Create an account or login for free to unlock our expert analysis and key takeaways for this development.
By continuing, you agree to receive marketing communications and our weekly newsletter. You can opt-out at any time.
Recommended for you
Nebius to build 240MW AI-focused data centre near Lille, France
Amsterdam-based Nebius will convert a former Bridgestone tyre site in Béthune into an approximately 240 MW AI-focused data centre campus, with phased capacity beginning from late summer and about half expected online by end-2026. The project both reflects and amplifies a market-wide push — by specialist operators and hyperscalers alike — that is heightening competition for GPUs, grid connections and contractor capacity across Europe.
Digital Edge commits $4.5 billion to develop Indonesian data‑center campus
Digital Edge announced a $4.5 billion project to develop a large data‑center campus in Indonesia, signaling a major bet on Southeast Asia’s cloud and enterprise demand. The move will accelerate local capacity expansion but raises questions about power, connectivity and regulatory alignment as competition for regional digital infrastructure intensifies.
NTT Global Data Centers to Scale Capacity to 4 GW, Targeting AI Demand
NTT Global Data Centers plans to deploy roughly 4 GW of nameplate IT power across 34 projects within about two years, accelerating a shift to GPU‑dense, high‑power facilities. The program sharpens near‑term pressure on interconnection, transformer and cooling supply chains and forces an energy‑strategy choice—embedded generation, contracted renewables, or hybrid solutions—that will determine usable capacity and local political risk.
Nscale Secures Monarch Compute Campus to Build Multi‑GW On‑Site Microgrid
Nscale acquired American Intelligence & Power and the Monarch Compute Campus, creating Nscale Energy & Power and pairing the state‑approved microgrid and multi‑GW power runway with a fresh $2B Series C (post‑round valuation ~$14.6B) backed by strategic investors including Nvidia, Aker ASA and 8090 Industries — a capital and asset combination that accelerates large‑scale AI compute deployment and shifts bargaining leverage toward vertically integrated power‑and‑compute operators.
Delska unveils 10 MW Riga data center designed for AI workloads and low-carbon operations
Delska introduced a newly commissioned 10 MW facility in Riga that targets AI and high-performance computing customers while emphasizing renewable power and heat reuse. The site is built for growth — with dense rack power, modular space and room to expand to 30 MW — and positions the company as a regional hub for compute and digital resilience.
Applied Digital and Partners Commit 1.2GW Gas Plants to Power AI Campuses
Major data‑centre operators are building on‑site gas generation to meet AI power demand, with a reported $2.4B project delivering 1.2 GW . That move signals accelerating direct fuel deals, higher natural‑gas volumes, and greater strain on emissions targets.
EcoDataCenter and Neoclouds Accelerate Nordic AI Compute Buildout
Nordic developers and GPU-focused neoclouds are converting greenfield and industrial sites into large, power-dense AI campuses, driven by abundant renewables and the need for contiguous capacity. At the same time, governance, energy-asset ownership by hyperscalers, and utilization and permitting risks are reshaping where—and how—Europe’s AI compute footprint will concretely land.
Baker Hughes Raises Data‑Center Order Target to $3 Billion as AI Drives Power Needs
Baker Hughes has lifted its target for data-center related orders to $3 billion, citing sharply higher demand for power equipment from AI-driven compute growth. The move signals growing commercial opportunity for industrial power suppliers and raises questions about supply chain capacity and utility coordination as hyperscalers expand server farms.