A whole line against your building
One project at one of three takt tiers between 4 and 15 PPM, laid out against your bay dimensions, floor loading and utility drops.
- Usual reader
- First line
- Acceptance
- Both segments
Equipment catalogue
Nine workstations we design and build for prismatic module and pack lines, and nine more for the cylindrical branch. Each is shown at the position it occupies in the 17-station module or 15-station pack sequence, with the figures that decide the fit.
Red positions are our own designs. The rest are handling, cleaning, taping, fastening and inspection stations supplied with the line.
Supply boundary
The line begins where a finished cell arrives on a pallet and ends where a tested pack leaves the floor. Everything between is ours.
Three scopes
Most enquiries arrive as one of three shapes. Which one yours is decides how much layout work and acceptance sits around the machines, not which machines you get.
One project at one of three takt tiers between 4 and 15 PPM, laid out against your bay dimensions, floor loading and utility drops.
A station sequence with its own acceptance criteria — usually a module segment that cannot feed a pack segment already sized right.
Its own interface sheet: transfer height, supply, air and network figures, so it drops into a line somebody else built.
The machine specifications are identical in all three cases. A press is the same press whether it arrives as station 08 of a new line or as a pallet on your dock. What changes is the layout work in front and the acceptance behind.
The nine
Nine workstations on the module and pack lines are our own designs, not bought-in units carrying our label. Each card gives the position, the two figures customers buy against, and the datasheet.
A six-axis robot lifts five cells per pick off the tray, checks post orientation and stacks the empty trays.
Every cell scanned and sorted into up to ten settable grades. Rejects are ejected and the gap refilled from a buffer.
A servo press closes a stack of 8 to 24 cells, holds it by recipe, measures the length and bands it with steel.
One vision set finds each terminal centre and reads polarity in one shot; a pulsed laser cleans a 2 mm ring on the post.
A 6 kW laser welds single-row and double-row modules at 50 to 100 mm/s, on the recipe stored against that busbar geometry.
Insulation, hipot, voltage with resistance and continuity, run once on the module and again on the pack.
Twin servo pumps meter adhesive onto the cooling plate and enclosure floor, with a live pressure trace per pack.
Double-speed chain moves modules on 1200 × 400 mm fixtures, each carrying an RFID tag.
A four-axis gantry beside the line, where a new weld recipe is created and pull tested on samples.
The rest are handling, cleaning, taping, fastening and inspection positions supplied with the line. Both sequences are walked station by station, with the automation label on each, on the module line and pack line pages.
Station counts, module and pack.
Module 01–03
The first three stations decide what the rest of the line works with. A group that reaches stacking complete but mixed passes every station after it and is still a bad module.
A six-axis robot with 220 kg payload and 2650 mm reach picks five cells at a time to ±0.06 mm. Vision checks post orientation; a cell facing the wrong way never reaches sorting. Empty trays stack automatically and alarm out at twenty layers.
Voltage is measured to ±(0.01%rdg + 3dgt) and resistance to ±(0.5%rdg + 10dgt), and each cell falls into one of up to ten settable grades. Cells outside the window are ejected and the gap refilled from a 60-cell buffer, same grade.
Barcode, voltage, resistance, grade and refill go to your MES by cell number. The grading window comes off your datasheet and grouping rules, signed by both sides before shipment.
| Measured | Accuracy |
|---|---|
| Barcode | 99.9% or better |
| Open-circuit voltage | ±(0.01%rdg + 3dgt) |
| Internal resistance | ±(0.5%rdg + 10dgt) |
| Post orientation | Vision, pre-sorting |
Module 08–09
BLP-SP takes a stack of 8 to 24 cells with end plates and sheets already placed, closes it, holds it, measures it and bands it — then writes one curve per module.
| Parameter | Figure |
|---|---|
| Press force | 0–8000 N servo, 10 N resolution |
| Dwell | 0–60 s by recipe |
| Post-press measurement | ±0.1 mm |
| Module length tolerance | ±0.5 mm |
| Pressing span | 300–1100 mm |
| Cycle, blueprint 1P13S | ≤90 s, banding included |
The blueprint 1P13S module is 978.4 mm long, well inside the span. Recipes carry target force, dwell, target length and banding passes.
Station 09 is written as semi-automatic rather than letting “automatic” cover a position where somebody is standing.
Full sequence on the module line page; the station on the stacking and pressing page.
Module 11 → 13
These two are quoted together more often than separately, and the reason is worth spelling out.
One vision set finds the terminal centre and reads polarity in the same shot; a 100 W pulsed laser then cleans a 2 mm ring on the post. Three seconds or less per terminal, and the coordinates leave as a joint map.
A 6 kW laser welds the busbars at 50 to 100 mm/s, to a penetration of 1.0 mm or more, a width of 1.5 mm or more and a pull force of 1000 N or more — single-row and double-row on one station.
A recipe fixes beam power, speed and focal position against one joint geometry. If the terminal is half a millimetre from where the recipe assumes, it is running against a different joint — and the pull number stops describing what came out.
Datasheets: terminal addressing and busbar welding.
Off the takt
A four-axis gantry laser welder standing next to the line rather than in it. Plants running our lines usually take it too; the reason is in the first card below.
| Parameter | Figure |
|---|---|
| Wavelength | 1070 ±10 nm |
| Rated power | 1000 / 2000 / 4000 / 6000 W |
| Fibre core | 14 / 20 / 50 / 100 µm |
| Power adjustment | 10–100%, stability ≤3% |
| Travel | X 800 / 1000, Y 400 / 600, Z 200 / 400 mm |
| Takt, reference part | 4–6 PPM |
One clamping, weld length of 600 mm or less, a module-level part with a single busbar row. For anything else we convert to a shift output against your own fixture drawing rather than publish a second headline number.
A new busbar recipe is created here, welded onto samples and pull tested before it goes near the takt.
Parts pulled off the line are rewelded here to the recipe stored against their own part number, not to whatever is convenient on shift.
Module or bracket welding for a plant that does not yet need an inline welder, on either of two frame sizes. Detail on the gantry page.
Module 16 & Pack 14
BLP-EOL appears twice on a line, and reading that as duplication is the commonest misreading of the station list.
| Module station 16 | Pack station 14 | |
|---|---|---|
| Object under test | One module — 13 cells in series on the blueprint 1P13S, its own busbars and barriers | A complete 1P52S pack: enclosure, cooling plate, BMS, MSD, connectors, harness |
| Insulation path | Cell group to module structure | Runs to a metal enclosure absent at module 16 New path |
| Failures it catches | Cell and module level: a bad joint, a displaced barrier, a cell out of grade | Assembly: a pinched harness, a fastener through a barrier, a connector not seated |
| What a failure costs | One module, held before it is glued in and wired to twelve others | A pack opened again after gluing, fixing and harness dressing |
| Items run | Insulation at DC 1000 V against 500 MΩ or better · hipot at DC 2800 V, leakage 10 mA or less · total voltage with resistance · continuity | |
Thresholds and fixtures on the end-of-line testing page.
Send four things
Your cell datasheet, module and pack configuration, target takt, and what is on your floor now. Back within 24 hours: every machine named, its position in the two sequences, and whether this reads as one station, a segment or a whole line.
Pack 03
BLP-GL applies adhesive to the enclosure floor and cooling plate before modules go in. It is also one of only four automatic stations out of fifteen on the pack segment.
The pressure trace exposes a partially blocked nozzle: the path completes, pressure climbs, delivered volume drops below the window, and the part is held rather than passed on looking finished.
A part past the stored open time is held: uncured, cleaned and recoated in the station; cured, sent to rework under its enclosure number.
Module fixing, copper bar mounting, BMS and MSD installation, harness dressing and lid fitting are hands. Station by station on the pack line page.
Between stations
Sections and transfer heights on the conveyor system page.
Cylindrical branch
Power tools, light electric vehicles and portable storage are built from 18650, 21700 and 26650 cells. Seven single stations, two complete lines.
Sorting, bracket loading, nickel welding, BMS assembly, testing and packing, on 5S2P to 13S4P builds. Sampled pull testing at 30 N or more.
300–600 packs per shift
Protection board welding, taping, bending, packing and testing — voltage, resistance, charge and discharge function, insulation.
500–1,000 packs per shift
The branch shares three rules with the main line: the sorting window is agreed in writing, welding parameters live in recipes, and operators do not hold them. Both lines on the cylindrical and consumer page.
One rule, four machines
Every station that puts energy into a part runs from a stored recipe, and three rules cover all of them.
A recipe for a new busbar geometry is created on BLP-WG, welded onto samples and pull tested. Once the samples meet the criterion, it moves to BLP-W6 unchanged — same format, same part number, same two signatures.
You receive a recipe list covering every welded and pressed part number, plus a change record: what changed, by whom, when.
Scope 03, in detail
A machine specification is half of what decides whether a station fits a line somebody else built. The other half is the interface sheet, different for every machine.
Transfer height is 900 ±50 mm, adjustable against your existing conveyor. Modules travel on their fixture, handed over by BLP-CV. Communication is PROFINET, force curve and pressed length by module number.
Those figures belong to BLP-SP and nothing else. BLP-WG is 4 × 2 m, 10 to 25 kW, external chiller. One house standard for both would be wrong for at least one.
The layout it is joining, conveyor height and pitch either side, and the fixture drawing.
| BLP-SP interface | Figure |
|---|---|
| Transfer height | 900 ±50 mm, adjustable |
| Handover | Module on fixture, from BLP-CV |
| Communication | PROFINET, by module number |
| Rated power | 8 kW, 380 V, 50 Hz |
| Compressed air | 0.5–0.7 MPa, ≤200 L/min |
| Changeover | Platen, fixture, stops — about 2 h |
Envelope ranges on the cell compatibility page; bay dimensions on the layout and utilities page.
Before it ships
A line is set up in your ordered configuration, powered and run in a pre-assembly bay — not shipped as crates to be discovered on your floor.
The assembly hall is 6,000 square metres with three pre-assembly bays. Factory acceptance happens there, on your cells, busbars, end plates, enclosures and cooling plates, against criteria signed before shipment.
Your enquiry, ready to send
If your email client opened, it is already in the message. If nothing opened, use one of the two routes below.
Start a project
Four lines to our engineering team and an equipment list naming each machine, its position in the two sequences, and whether this is one station, a segment or a complete line comes back within 24 hours.