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/IND-ENERGYEV & ENERGY · BATTERY

Battery automation
cell to pack.

From electrode stacking to pack-level EOL test, we deliver gigafactory-ready automation: cleanroom and dryroom compatible, cell-level traceability, and a documentation set built for IATF and the EU Battery Passport. For energy and battery manufacturers, this keeps yield, takt time, and release quality aligned as line volume scales.

/DATASHEETREF. IND-ENERGY-001
CHEMISTRYNMC · LFP · NCA · solid-state
FORMATPouch · prismatic · cylindrical
PLACEMENT TOL.±0.05 mm @ TCP
CLEANROOMISO 5 (Class 100) compatible
DRYROOM−40 °C dewpoint compatible
DATACell-level genealogy + MES
12+
Battery lines
±0
.05 mm placement
100
% cell traceability
ISO
5 cleanroom ready

ANSWER-FIRST

How should battery manufacturing automation be prioritized?

Battery automation programs move fastest when teams resolve the highest-impact production constraint first. That is often electrode handling precision, welding quality drift, formation throughput, or traceability gaps affecting release confidence.

What does automation in battery manufacturing include?

It includes cell assembly, module and pack integration, inline inspection, controls engineering, and data systems that stabilize throughput and quality at scale.

How do battery teams estimate ROI before deployment?

ROI is usually modeled from yield improvement, cycle-time reduction, scrap avoidance, and downtime recovery with KPI baselines set before implementation.

Can battery lines integrate with existing MES and ERP platforms?

Yes. Most programs connect to existing MES and ERP environments for genealogy, production visibility, and quality event traceability.

How quickly can support start for production bottlenecks?

Support can start quickly with remote diagnostics and escalate to focused on-site intervention for constraints affecting output, quality, or schedule.

Teams planning energy and battery automation generally compare traceability depth, process safety architecture, and lifecycle support before selecting battery automation companies for multi-line scale-up.

Industry references: IATF · UL Battery Certification · EU Battery Regulation · ISO 14644
/01STANDARDS FRAMEWORK

Battery automation standards matrix.

Battery cells fail in ways no other industry tolerates. Our deployments are built against this matrix from URS forward — not bolted on at FAT.

/STD-01

IATF 16949 / ISO 9001

Automotive QMS for traction battery suppliers.

  • PPAP / APQP
  • Configuration control
  • Sub-tier flowdown
  • Audit-ready records
/STD-02

ISO/IEC 62133 · UN 38.3

Cell safety, transport and abuse testing standards.

  • Electrical abuse
  • Mechanical abuse
  • Thermal abuse
  • Transport certification
/STD-03

UL 2580 / UL 1973

Battery system safety for EV and stationary storage.

  • Functional safety
  • Insulation resistance
  • BMS validation
  • Fire propagation tests
/STD-04

ISO 26262 · ASIL

Functional safety for traction battery and BMS.

  • HARA + ASIL decomp
  • FMEDA · DFA
  • Safety case
  • TÜV-aligned process
/STD-05

EU Battery Regulation

Battery passport, carbon footprint and digital twin.

  • Cell-level passport
  • CO₂ footprint declaration
  • Recycled content trace
  • QR + DPP linkage
/STD-06

Cleanroom & Dryroom

ISO 14644 cleanroom and ultra-low dewpoint dryrooms.

  • ISO 5 / Class 100
  • −40 °C dewpoint
  • ESD-safe materials
  • Low-particulate motors
/02PLATFORM DATASHEET

Five energy and battery automation subsystems.

From electrode to EOL test. Switch tabs to inspect the spec for each subsystem.

/CELL · ELECTRODE, STACKING, FORMATION

Cell Manufacturing

Electrode, stacking, formation. Engineered for cleanroom and dryroom environments with full configuration control and per-cell traceability.

SPECIFICATIONREF · CELL-2026
STACKINGZ-fold + single-sheet, ±0.05 mm
WELDINGLaser tab welding (1 kW fiber)
ELECTROLYTERobotic dosing ±0.5%
FORMATION256-channel formation rack
INSPECTIONX-ray edge alignment + vision
/03REFERENCE LINE

Cell → module → pack — top view.

Schematic of a representative EV battery line spanning electrode stacking through pack EOL test, with ISO 5 cleanroom and dryroom envelopes.

SCHEMATIC · SCALE 1:80 · REF DWG-EN-001
DRYROOM · −40 °C DEWPOINTCLEANROOM · ISO 5 (CLASS 100)STACK/S1WELD/S2FORM/S3MODULE/S4PACK/S5EOL TEST/S6MES · CRITICAL MFG/MES — PER-CELL GENEALOGYEU BATTERY PASSPORTDigital Product Passport (DPP)X-RAY · VISION/QA-01HiPot · LEAK/QA-02CELL FLOW →
/S1–S3Dryroom (electrode → form)
/S4–S6Cleanroom (mod → pack → EOL)
/MESPer-cell genealogy
/DPPEU Battery Passport export
/04APPLICATIONS

Battery automation applications by production stage.

/APP-01

Electrode Stacking

Z-fold and single-sheet stackers with ±0.05 mm alignment.

/APP-02

Laser Tab Welding

Fiber laser tab welding with thermal validation.

/APP-03

Module & Pack Assembly

Cell-to-module-to-pack with vision-guided placement.

/APP-04

In-line X-ray & Vision

Edge alignment, weld quality, leak detection.

/APP-05

Formation & Grading

Multi-channel formation, OCV/IR/capacity binning.

/APP-06

EOL Test & BMS Flash

HiPot, leak, cycler and BMS firmware programming.

/05ENGINEERING LIFECYCLE

From URS to production release.

Five gates. Each gate produces a controlled deliverable signed under our quality system.

01T+0
/DISCOVERY

URS & Cell Roadmap

DELIVERABLE
DOC-01 URS + chemistry plan
02T+4W
/DESIGN

Layout & Tolerance Stack

DELIVERABLE
DOC-02 Layout + GD&T + I/O list
03T+12W
/BUILD

FAT + Cleanroom Pre-cert

DELIVERABLE
DOC-03 FAT + ISO 14644 cert
04T+18W
/QUALIFY

PPAP & Capability Run

DELIVERABLE
DOC-04 Cpk study + PPAP pkg
05T+SAT
/RELEASE

SAT & Production Release

DELIVERABLE
DOC-05 SAT + handover + spares
/06FIELD REPORT

EV module assembly cell — Tier 1 OEM.

High-throughput cylindrical cell module assembly with vision-guided placement, laser tab welding and full per-cell genealogy export.

  • Module assembly cell sized for 21700 cylindrical cells
  • FANUC LR Mate vision-guided placement at ±0.1 mm
  • Laser tab welding with in-line thermal validation
  • HiPot, IR and OCV gating before module release
  • Cell-level genealogy pushed to plant MES + ERP
START YOUR BATTERY PROJECT →
/RESULTSDOC · CASE-EN-007
METRICBEFOREAFTER
Placement accuracy±0.3 mm±0.1 mm (3× tighter)
Weld defect rate1.4%0.18% (−87%)
Cycle time100%62% (−38%)
Cell traceabilityLot-level100% per-cell genealogy
/08FAQ

Common battery automation questions.

Yes. Our engineers are trained for ISO 5 cleanrooms and dryrooms down to −40 °C dewpoint. We use ESD-safe tooling, low-particulate motors and follow the site's contamination control plan.

Pouch, prismatic and cylindrical (18650, 21700, 4680). Chemistries include NMC, NCA, LFP and emerging solid-state. Each format has its own validated stacking, welding and handling spec.

Standard. Every cell carries a laser-marked DataMatrix and is tracked through MES with stacking, weld, electrolyte and formation parameters. Data is structured for the EU Battery Passport.

Yes. Safety-relevant subsystems are designed under ISO 26262 with HARA, ASIL decomposition, FMEDA and a documented safety case aligned with TÜV-style assessment.

Yes. We integrate with Critical Manufacturing, DELMIA Apriso, Tulip and others using OPC UA + MQTT, with SAP / Oracle ERP integration on top.

/CTANEXT STEP

Ready to scale your
battery line?

Cleanroom, dryroom, cell-level traceability. Talk to a battery engineer this week and define the right roadmap for energy and battery automation. For adjacent operations, review our electronics automation workflows and manufacturing automation programs.