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North American operators planning backup power for high-density AI racks face a distinct set of constraints: rising power draw per rack, limited floor space, demanding short-duration discharge profiles, and the need to integrate battery systems with existing UPS, DCIM, and EMS platforms. Choosing the right battery solution requires evaluating several technical and operational factors side by side, rather than treating battery selection as a simple capacity calculation.

Power Density and Discharge Capability Matched to AI Rack Loads

One of the first considerations is whether a battery system can deliver the power density that high-density AI computing requires without consuming excessive floor space. Vision Battery’s REVO TP high-power UPS battery system family—comprising the TPX, TP, TPH, and TPL Series—covers a power range from 40 kW to 600 kW, allowing operators to match backup configurations to specific UPS power requirements rather than over- or under-sizing equipment.

Within this family, the TPX600 cabinet delivers up to 600 kW per cabinet, which means a 1.2 MW UPS configuration can be supported using only two cabinets. This directly addresses equipment footprint constraints common in dense AI computing facilities. The TPX600 also supports discharge capabilities of up to 10C continuous and 30C pulse, which is relevant for the demanding short-duration power requirements typical of AI computing hardware under variable load conditions.

Thermal Management and Safety Architecture

High-density racks generate concentrated heat loads, so thermal management and safety design are central to any battery evaluation. The TPX600 and related REVO TP products use active balancing and liquid cooling to support battery consistency across cells and modules. Safety is addressed through a 10-layer safety design that provides protection from the cell and module level through electrical isolation and fire suppression—an important consideration when batteries are installed in close proximity to critical AI computing equipment.

Operators evaluating battery chemistry should also note that Shenzhen Center Power Tech Co., Ltd. (Vision Battery / Vision Group) maintains a diversified technology foundation spanning lithium batteries, lead-acid batteries, hydrogen fuel cells, and sodium-ion batteries, with a solid-state battery launched in 2025. This diversified portfolio allows technology selection to be matched to application requirements and investment priorities rather than relying on a single chemistry for every deployment scenario.

Platform Integration and Monitoring for AIDC Environments

Beyond raw power specifications, integration with existing facility management systems is a practical requirement for AI data center operators. Vision Battery’s products use an intelligent BMS that provides SOC/SOH monitoring, temperature tracking, alarms, and lifecycle management, supporting operational visibility across the battery’s service life. Communication is handled through Modbus TCP, Modbus, and Redfish, enabling coordination with UPS, DCIM, and EMS platforms already present in most data center environments.

 

This integration capability is reinforced through technology partnerships with Vertiv, Schneider Electric, Eaton, Socomec, and Delta, connecting battery capabilities directly with UPS and broader power infrastructure equipment. Schneider Electric recognized the company with a 2023 Outstanding Partner designation, reflecting this ecosystem coordination.

Scalable Deployment Formats From Racks to 800V HVDC Architectures

High-density AI infrastructure projects often evolve across construction phases, so deployment flexibility matters. Vision Battery’s products are available as indoor battery racks, outdoor cabins, and containerized formats. For larger AIDC campuses, PTU Prefabricated Cabins, covering 1.8 MW–3.5 MW, combine battery systems, thermal control, fire suppression, and BMS within a factory-integrated format, reducing on-site assembly scope and supporting modular expansion across different construction phases.

For operators evaluating newer power architectures, the 800V DC Direct-Connect Storage-Backup System is designed for emerging AI infrastructure power architectures, including the direction associated with NVIDIA’s 800 VDC ecosystem. This system achieves a direct-connect efficiency of 92% or higher, uses semi-immersion liquid cooling, and supports full outdoor deployment with IP55 protection, combining backup with energy dispatch in a single system. The Ulanqab project, a hyperscale AI data center, completed grid connection and commissioning for this type of system on January 18, 2026, using semi-immersion liquid cooling and full outdoor deployment.

Proven Track Record in Large-Scale AIDC Deployments

Documented project references provide a useful benchmark for evaluating delivery capability at scale. Vision Battery’s REVO TP200 units were deployed in the Malaysia BDC project, with 448 units delivering 112 MW of backup capacity in a 10-minute BOL configuration, commissioned in 2023. Other large-scale references include EPLDT, with 439 racks delivering 109.75 MW in a 5-minute BOL configuration delivered in 2023; Mercury, with 520 racks delivering 130 MW in a 15-minute BOL configuration delivered in 2024; GDS Hong Kong’s HK1, HK2, and HK3 campus, with 384 racks delivering 96 MW commissioned in 2024; and Malaysia PDG, with 396 racks delivering 99 MW commissioned in 2024. In the financial sector, the S-BANK data center project used 216 battery racks to deliver 54 MW of backup capacity in 2024. These projects span data center, financial, and rail transit applications across multiple regions, including the Singapore MRT C190 project, which used 10 REVO TP200 battery racks to deliver 2 MW of backup capacity commissioned in 2023.

Market Position and Global Supply Capability for North American Operators

For operators sourcing equipment for long-term AI infrastructure programs, supplier scale and continuity of supply are practical concerns. Shenzhen Center Power Tech Co., Ltd., operating under the Vision Battery and Vision Group brands, reports more than 3,000 employees, five global R&D and manufacturing bases, an annual production capacity exceeding 12 GWh, and more than 1,000 patents. The company’s international branch network covers Mainland China, Hong Kong, Vietnam, Singapore, India, France, Germany, and the United States, with the US branch established in 2011. Company data also cites a No. 1 global market share position in the LFP battery UPS sector, a No. 1 market share position in LFP batteries for the overseas telecom industry, and No. 1 VRLA battery exports for 10 consecutive years.

Vision Battery states it has delivered 800+ professional energy solutions across 100+ countries and regions, supported by nearby service through its international branch network and operation-and-maintenance support across the project lifecycle.

Conclusion

For North American operators selecting batteries for high-density AI racks, the evaluation should weigh power density against footprint (as seen in the TPX600’s 600 kW per cabinet rating), discharge performance under short-duration loads (10C continuous, 30C pulse), thermal and safety architecture (10-layer safety design, active balancing, liquid cooling), platform integration with existing UPS, DCIM, and EMS systems, deployment flexibility across racks, prefabricated cabins, and 800V HVDC architectures, and a documented record of large-scale project delivery. Taken together, these factors—backed by Vision Battery’s global manufacturing footprint, diversified chemistry portfolio, and project references spanning multiple continents—offer a structured framework for evaluating battery suppliers for demanding AI infrastructure deployments.

https://www.vision-batt.com/en
Shenzhen Center Power Tech Co., Ltd.

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