Schneider Electric Launches Multi-Chemistry APC Smart-UPS Platform

A UPS chassis intended to outlast its first battery choice

Schneider Electric has introduced a next-generation APC Smart-UPS platform built around a multi-chemistry battery approach. Announced on August 10, 2026, the platform is intended for distributed IT and edge applications where the UPS may remain in service through more than one battery-refresh cycle. Its central design proposition is that an organization can use valve-regulated lead-acid (VRLA) batteries or lithium-ion batteries in the same UPS chassis, subject to Schneider Electric’s compatible battery offerings. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

That distinction matters for network closets, security head ends, industrial communications cabinets and small IT rooms. Rather than making the original battery technology a permanent chassis decision, a purchaser can begin with a supported VRLA configuration and later evaluate a supported lithium-ion configuration when replacement timing, runtime needs, maintenance practice or lifecycle economics change. This is not an assurance that any battery technology can be installed: Schneider Electric says future chemistries will require compatible battery packs that it introduces for the platform. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

Initial SRTD models target rack and tower deployments

The platform debuts in the APC Smart-UPS On-Line SRTD series, initially at 2.2 kVA and 3 kVA. Schneider Electric positions those first models for servers and networking equipment in medical, light-industrial and IT white-space environments, and says additional capacity models are planned. The company stated that SRTD units would be available to order in North America beginning September 1, 2026. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

A U.S. product page for the SRTD2K2R2N-LA provides a concrete example of the initial range: it is a 2.2 kVA/1.8 kW, 2U rack/tower-convertible model with 11 total outlets and a stated 94% efficiency. The model page also explicitly identifies the same-chassis support for VRLA, lithium-ion and future emerging battery types. Product-level details such as receptacle mix, input plug, network card inclusion and output capacity vary by SKU, so they should be reviewed individually during selection. ([se.com](https://www.se.com/us/en/product/SRTD2K2R2N-LA/apc-smartups-online-ups-rack-tower-2200va-120v-vrla-w-network-card/))

What Schneider Electric says has changed

Schneider Electric says the new platform can provide up to three times the base runtime, up to 1.4 times more power density and up to 57% more outlets than previous Smart-UPS models. It also says the design can reduce power loss by up to 40%. Those figures are comparative manufacturer claims, not universal results for every load, configuration or model, and should be validated against the runtime charts and electrical specifications for the proposed UPS. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

For extended-runtime projects, Schneider Electric says the platform supports up to 10 external battery packs. That may be relevant where a network rack must sustain switches, routers, storage, access-control controllers, video-recording equipment or other critical loads through a longer outage. It also makes a careful load inventory essential: runtime is driven by actual watts, power factor, battery configuration, age, temperature and the permitted discharge profile—not only by the UPS VA rating. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

Operational considerations for integrators and procurement teams

The practical procurement question is not simply whether lithium-ion is preferable to VRLA. Teams should define required hold-up time, battery replacement windows, service access, rack space, ambient conditions, monitoring needs and the cost of an outage. VRLA may fit a lower initial-cost deployment, while a supported lithium-ion option may be considered where its lifecycle characteristics justify the configuration. The multi-chemistry chassis can preserve a later decision point, but it does not eliminate the need to plan the initial battery system and runtime correctly.

Standardization could also simplify distributed deployments. Schneider Electric says the platform shares an interface, batteries and spare parts across kVA models, while the initial models can be installed in a rack or as towers. For multisite operators, common monitoring and a consistent service process can be as significant as chassis capacity. Schneider also identifies EcoStruxure IT and PowerChute software as part of its monitoring and shutdown ecosystem; buyers should confirm licenses, network-card configuration and software compatibility for the exact deployment. ([prnewswire.com](https://www.prnewswire.com/news-releases/schneider-electric-introduces-the-industry-defining-multi-chemistry-apc-smart-ups-302847159.html))

Battery safety and compatibility remain central

Changing battery chemistry is not a routine substitution exercise. Schneider Electric publishes a dedicated safety guide for APC Smart-UPS On-Line systems with multi-chemistry batteries, reinforcing that battery handling and replacement must follow the manufacturer’s procedures and approved configurations. Installers should use the applicable model documentation, observe battery and electrical safety requirements, and verify the approved external battery pack arrangement before commissioning. ([se.com](https://www.se.com/us/en/download/document/SPD_SUO-SFTY-JPS33537_EN/))

For buyers planning projects now, the launch creates a useful option: specify the UPS platform around the protected load and infrastructure, then preserve the ability to reassess battery technology at a future refresh. However, project documents should name the exact UPS and battery SKUs, required runtime at measured load, outlet and plug requirements, management card requirements, and any constraints on rack depth, weight and service access.