Let’s talk

CIRCULAR BATTERIES

A first life on the road.
A useful life beyond it.

Suitable retired EV batteries can store electricity for another purpose. Condition, safety and the intended duty decide whether a second life is the right route.

Discuss your batteriesHow we work
Circular batteriesRetired battery modules are assessed. Suitable modules go to stationary storage. Other materials go to specialist recovery. Retired modulesAssessSecond-life storageMaterial recoveryCondition and safety checks
  • Assess retired modules
  • Reuse suitable modules
  • Recover other materials
WHO IT’S FOR

Battery owners, fleet operators, dismantlers and storage projects.

START WITH

Battery identity, history, condition and available test records.

THE NEXT STEP

A route for assessment, reuse or responsible material recovery.

CONDITION FIRST

A clear decision
for every battery.

Repurposing is an engineering decision. The right route depends on the battery and the requirements of its next application.

Assess.

Review provenance, chemistry, condition, remaining capacity and operating history.

Repurpose where suitable.

Design storage around viable modules, appropriate controls, protection and the intended duty.

Recover responsibly.

Use appropriate specialist recovery routes for material unsuitable for safe reuse.

Module identity · Condition checks · Reuse or recoveryIllustrated sequence for module identity · condition checks · reuse or recovery. Identify modulesCheck conditionSelect a safe route
  • Module identity
  • Condition checks
  • Reuse or recovery

CONNECTED TO A REAL USE

Storage with
a job to do.

A second-life system needs more than usable cells. It needs a suitable site, a workable control strategy and a clear plan for maintenance and eventual recovery.

Solar storage, site demand and tariff timing can all inform the design. Warranty, responsibility and operating limits belong in the proposal from the start.

Explore intelligent energy

BATTERY QUESTIONS

Suitability comes first.

Can every EV battery be reused?

No. Condition, damage, history, chemistry and the intended application determine suitability. Assessment may lead to material recovery rather than reuse.

Can I supply retired batteries?

Contact us with the make, model, chemistry, quantity and available history. We can discuss the assessment and delivery route.

Is second-life storage automatically cheaper?

No. Testing, integration, protection, warranty and remaining life all affect the whole-life cost. Compare the complete system against alternatives.

THE PRACTICAL DETAILS

What a second life requires

Trace the module before assessing it

Collect the chemistry, pack and module identifiers, condition, service history and reason for removal. Prior damage and missing records affect what can be responsibly assessed. Separate known candidates from material requiring specialist handling before planning any reuse.

Read the Environment Agency’s acceptance guidance

Match condition to the next job

Remaining capacity is one input. Also consider resistance, consistency between modules, thermal behaviour and the demands of the proposed duty. A stationary store needs suitable controls, protection, enclosure, monitoring and safe isolation. A module’s suitability depends on the design it will go into.

Explore stationary storage use

Plan recovery as part of the project

Some modules will be unsuitable for a second life. Define who will handle them and where they will go. Agree ownership, traceability, warranty boundaries and eventual recovery for the modules that are installed as well.

Read the Environment Agency’s treatment guidance

YOUR NEXT STEP

Give the next life a clear purpose.

Tell us about the batteries you have or the storage application you are considering.

Discuss your site