Overview
Recently, Hithium broke ground on an integrated storage-compute project—dubbed the “Token Factory”—in Baotou, Inner Mongolia. The plan co-locates grid-side storage with a distributed intelligent computing center for joint operation, extending the business from delivering storage equipment toward long-term energy supply and compute services. It is seen as a microcosm of China’s storage industry crossing into computing-infrastructure buildout.
Per Securities Daily, Hithium operates a 2.4 GWh storage station in Baotou with 454 battery cabinets. NEA data show that by end-2025, China’s new-type storage capacity reached 136 GW / 351 GWh, up 84% year-on-year, with independent storage at 51.2% of cumulative capacity. As mandatory renewable co-location storage is abolished, projects rely more on market trading for returns, raising the bar for economic and operational capability.
On policy, in April 2026 the NDRC and three other ministries issued an action plan for “bidirectional empowerment of AI and energy,” encouraging grid-forming storage at compute facilities, using price signals to optimize energy management, and letting facilities join energy, ancillary-service and demand-response markets. Experts argue that as source-grid-load-storage, direct green-power links, zero-carbon parks and intelligent computing converge, new-type storage is becoming a key flexible resource in the compute-energy ecosystem.
Background & Interpretation
1. Industry Background and Policy Context
Storage is migrating from “renewable-balance auxiliary” to “core digital-economy enabler.” Earlier co-located projects often underused resources; post-abolition, independent storage profiting via arbitrage is mainstream. Meanwhile, the AI compute boom creates massive, stable, green power demand that complements storage’s peak-shaving role, and policy has opened the “compute-energy synergy” channel.
2. Core Drivers and Underlying Mechanisms
The logic is dual revenue: “energy arbitrage + compute service.” Storage charges cheap and discharges dear while supplying steady green power and backup capacity to compute centers, converting idle assets into recurring service income. Grid-forming storage actively supports voltage and frequency, meeting data centers’ stringent reliability needs. This “equipment → operations” shift turns integrators from one-off sellers into cash-flow service providers.
3. Market Structure and Industrial Chain Impact
Compute centers are becoming storage’s high-value scenario. For integrators, competition extends from “cell performance” to “system coordination and long-horizon operations”; for grids and renewables firms, storage stabilizes volatility and lifts green consumption; for data-center and AI firms, green steady supply lowers PUE and compliance cost. Yet thin cross-domain experience, heavy capex, and uneven standards and trading rules remain hurdles.
Implications & Outlook
Near-to-medium term, storage-compute synergy should scale first in zero-carbon parks, source-grid-load-storage integration and direct green-power links. Watch the unification of power-market trading rules, the cost curve of grid-forming storage, and regulatory targets for green-power consumption at compute centers. With mechanisms clarified, asset utilization and returns should improve markedly.
Takeaways for Industry Participants
Integrators should accelerate the shift from equipment vendor to “integrated energy service provider” and tailor offerings to compute demand. Data centers can explore joint storage investment and capacity sharing to cut costs. Grids and regulators should promote unified trading rules and shared-storage mechanisms. Investors must soberly price cross-domain operating risk and avoid pile-on entries.
This column compiles industry information and shares technical perspectives; it does not constitute investment advice.