Use cases

Battery manufacturing workflows

These workflows focus on earlier defect visibility, faster diagnosis, and a clearer operating story across fragmented plant systems.

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Battery workflows

Scannable operating use cases

Each workflow names the team that owns it, the concrete problem they hit on the line, and the consequence Lychee helps reduce.

Defect risk prediction

Flag elevated defect risk earlier than downstream confirmation alone allows.

What it is

Earlier risk signals from fragmented process, lot, and quality history.

Why it matters

Upstream drift compounds scrap before later-stage failure is obvious.

Who owns it

Quality, process, and manufacturing engineering.

What it reduces

Additional scrap, rework, and lost output.

Root-cause investigation acceleration

Rank likely upstream contributors so teams do not start every investigation from zero.

What it is

A narrower search space around likely process windows, events, and conditions.

Why it matters

Engineering time is lost reconstructing plant context across systems.

Who owns it

Process engineering, cell engineering, and failure analysis.

What it reduces

Diagnostic drag and prolonged instability.

Ramp and restart stabilization

Support faster learning when new lines or restarted lines are still unstable.

What it is

Earlier visibility into recurring instability patterns during ramp and restart.

Why it matters

Ramp compresses decision cycles while magnifying the cost of drift.

Who owns it

Production leadership and manufacturing engineering.

What it reduces

Yield loss, delay, and schedule slippage during scale-up.

Fragmented manufacturing visibility

Create a clearer operating story across process, inspection, and quality systems.

What it is

A usable line view across machine history, lot context, inspection, and quality outcomes.

Why it matters

Most factory systems were not built to tell one end-to-end story.

Who owns it

Operations, manufacturing systems, and technical leadership.

What it reduces

Blind spots and duplicated investigation effort.

Process change-control validation

Detect downstream impact when the plant changes a setpoint, recipe, or supplier.

What it is

Earlier detection of how a parameter or material change is propagating through the line, before downstream QC confirms or denies it.

Why it matters

Validation that should take hours often takes weeks, slowing every change-control loop during ramp and steady state.

Who owns it

Process engineering, change-control review boards, and manufacturing engineering.

What it reduces

Stalled change-control queues and downstream surprises after seemingly small upstream changes.

EU Battery Regulation traceability readiness

Build richer per-cell process traceability as a byproduct of better operating visibility.

What it is

Process-history data structured to support per-cell traceability obligations under chapter VII of the EU Battery Regulation, including digital battery passport requirements from 2027.

Why it matters

Manufacturers exporting to the EU face per-cell data requirements that most plants do not currently capture cleanly.

Who owns it

Regulatory affairs, operations, and manufacturing systems leadership.

What it reduces

Compliance gap and the cost of retrospective data reconstruction under EU obligations.

Next step

Move from use case to scope

Scope a manufacturing pilot

Choose the first line, defect family, and KPI to test.

Scope A Pilot

See pilots

Review the first-pilot structure and data expectations.

See Pilots