Why batteries, why now

From grid burden to grid asset.

AI load is bursty – millisecond GPU spikes, a few hundred peak hours a year, and the occasional grid disturbance. A short-duration sodium-ion battery behind the meter handles all three, so the data hall draws a fraction of its peak from the grid and runs more compute per megawatt of connection.

Data center peak shaving chart with and without an Altris battery layer

Shave the peaks

Sub-second GPU spikes and short daily peaks are met from the battery, not the grid – smoothing a bursty AI load into a steady draw.

Ride through disturbances

UPS-grade backup at rack and facility density carries the hall through transients and short outages without lithium’s risk profile.

Free up the connection

Cutting the coincident peak lets a site run far more compute per megawatt of grid capacity.

From application review to commercial agreement.

Four steps. You drive the timeline. We bring the chemistry, the cells, and the engineering team.

  1. 01 Review

    Application review

    We assess your voltage, power, cycle, and environmental requirements.

  2. 02 Fit

    Chemistry fit

    We confirm whether existing cells or a co-development path best addresses your needs.

  3. 03 Prototype

    Prototype programme

    Reference cells produced at our Uppsala pilot line for your integration testing.

  4. 04 Commercial

    Commercial agreement

    Supply, licensing, or joint development. Path matched to your scale.

The chemistry

Built for the duty cycle, not against it.

Data-center batteries cycle hard, sit inside occupied buildings, and cannot catch fire. Altris Prussian White sodium-ion is built for exactly that – high-rate power for GPU transients, long life under heavy cycling, and no thermal-runaway risk.

~10x

Cycle life vs lithium iron phosphate*

28C

Peak power – 5-second pulse for GPU spikes*

Zero

Thermal runaway – no flammable solvents

For AI data-center dutyLithium-ion (LFP / NMC)Altris Na-ion
Cycle life under high C cyclingShorter; capacity knee, then fast fade~10x LFP
High-rate GPU power spikesSpikes erode cycle lifeAbsorbs high-rate pulses
Thermal-runaway riskReal risk; needs suppressionNone – no flammable solvents
Supply chain~65-80% ChinaEx-China – 83% EU today
Embodied CO2Baseline~40% of LFP
*Indicative figures from Altris and third-party benchmarks, at cell level; to be confirmed against your duty cycle.

Common questions.

How does sodium-ion help reduce data center peak demand?

An Altris battery layer can discharge during short GPU and facility peak windows, then recharge off-peak, so the site draws a smoother load profile from the grid connection.

Can Altris cells support UPS-style ride-through power?

Yes. Sodium-ion cells are well suited to high-rate, short-duration power delivery for ride-through events and transient support, with application review used to confirm the right voltage, power, and cycle profile.

Why use sodium-ion instead of lithium-ion inside occupied facilities?

Altris sodium-ion chemistry is designed around high-rate cycling, abundant raw materials, and no thermal-runaway risk from flammable solvents, reducing safety and supply-chain pressure for data center operators.

Submit your application requirements.