280 / 314 Ah prismatic
71.3 × 174 × 207 mm
3.2 V nominal LFP
1.005kWh per cell at 314 Ah
Storage pack plants
Finished cells in, closed and tested packs out. Every rate on this energy storage battery pack line is measured against one published blueprint — a 314 Ah prismatic cell, a 1P13S module, a 1P52S pack — stated below in millimetres, kilograms and kilowatt-hours.
Thirteen cells in series make the module; four modules fill the enclosure. Every station is dimensioned against one of these three rows.
Where the line starts and stops
Turnkey module and pack assembly for commercial, grid-scale and residential storage.
Who writes
The project or process engineer at a storage pack plant writes first, and the message nearly always carries the same three items — all answered at once, because each moves the other two.
All three, and the first reply is a layout. One, and it is questions.
The published blueprint
Three objects, each constraining the next. Naming all three with sizes and mass is what makes a takt figure comparable.
71.3 × 174 × 207 mm
3.2 V nominal LFP
1.005kWh per cell at 314 Ah
978.4 × 178.9 × 205 mm
≤100 kg, end plates and steel banding
13.1kWh per module
1152 × 810 × 243 mm
≤400 kg, closed and leak tested
52.3kWh per pack
| Layer | Configuration | Size and mass | Energy |
|---|---|---|---|
| Cell | 280 / 314 Ah prismatic | thickness 71.3 × width 174 × height 207 mm | 1.005 kWh at 314 Ah, 3.2 V |
| Module | 1P13S | 978.4 × 178.9 × 205 mm, ≤100 kg | 13.1 kWh |
| Pack | 1P52S | 1152 × 810 × 243 mm, ≤400 kg | 52.3 kWh |
On BLP-P8 the blueprint cell is a 314 Ah prismatic at 207 ±0.5 × 173 ±0.5 × 72 ±0.5 mm; the module built from it is the same 1P13S.
A takt figure with no object behind it can mean anything. Read the rows as one set and the energy column becomes usable: every output band below is built from 1.005, 13.1 and 52.3 kWh.
What each layer fixes
Each row lands on named stations. Change a row and they change.
Thirteen cells at 71.3 mm set how far the platen reaches — hence a span, not one figure.
Module mass sets what the conveyor takes and what the insertion fixture holds — rated at double, because the fixture travels with it.
The 1P52S pack sets enclosure handling, the gluing pattern and the volume the leak test holds pressure in. A larger enclosure is not a bigger version of the same test.
Moving to a different cell, station by station: the cell compatibility and changeover page.
Two segments, one handover
Both are ours, both laid out against your building, both on the same signed criteria.
Layout, equipment, installation, commissioning, acceptance and training as one project rather than machines you integrate — drawn against the floor loading and clear height you have, not a standard bay.
Before dispatch the line stands complete in one of three pre-assembly bays inside a 6,000 m² workshop and runs in its shipping configuration.
Station by station, with what is measured at each: the pack assembly line page. The engineering team: about.
1 cell → 1 minute
PPM counts one cell entering the module segment, per minute, at the feeding point — not packs, not modules.
Range around the blueprint
Around the blueprint each tier carries a range within which the same stations, in the same order, still build your product. The marker on each bar is where the blueprint sits — and your drawing gets checked on these same six bars.
| What varies | Range | Tier |
|---|---|---|
| Module envelope | length 300–1000 × width 150–370 × height 100–240 mm | BLP-P8 |
| Pack envelope | length 600–1200 × width 300–800 × height 100–250 mm | BLP-P8 |
For BLP-P8, 587 Ah large-format compatibility is a roadmap item under consideration, not a capability on the floor today.
Your module or pack can be built by the same stations in the same order, at the same takt tier. That is the whole claim, and it is narrower than it sounds. Fixtures are cut to a point, not a range, so two modules inside one envelope still need different insertion, fixing and pressing tooling.
The move between them is a fixture change with a duration attached:
Inside the range and already qualified, that is a shift. A type nobody has run before adds first-piece qualification and a signed grading table.
A range you can check yourself beats one you have to ask for.
Thirteen cells at your thickness, plus end plates and insulation, is the stack the press has to close. At the blueprint 71.3 mm that lands near 978 mm; at 80 mm it lands past 1040 mm and still sits inside the 400–1200 mm module bar. Run that multiplication before you send the drawing and you already know which bar is tight.
Using it early
Checking three dimensions against a published range takes a minute and settles the next month.
Either way the answer comes from three numbers. Send them with your enquiry and the check is done before the reply.
Three storage classes
Capacity, voltage and architecture below are an industry classification, reproduced so the last row has something to attach to — that last row is ours.
Scope is identical in all three rows. A grid-scale project orders more of the same takt, usually with liquid cooling — not a different machine.
The route that reaches furthest
Cooling route reaches deepest into the pack segment — it belongs in the first message, not the third layout revision.
Simpler structure and lower cost, with less even heat distribution. Typical of residential, small and mid-sized commercial systems and telecom sites. The pack segment runs its standard station list.
Heat removed faster and more evenly, with more structure to build and maintain. Typical of grid-scale plants, fast-charging sites and hot, humid environments. Three stations enter the segment, each with a signed threshold.
Send four things
Cell drawing with three dimensions, module and pack configuration with mass, cooling route, target takt or output. Back within 24 hours: a layout, a station list with automation labels, a tier recommendation.
Liquid-cooled build
Each carries a threshold, and each threshold is written into the acceptance criteria table both sides sign before the line ships.
Tested before anything is bonded — catching a leaking plate here, not after it is glued in and covered by four modules.
Twin-servo metering with a live pressure curve: the bead is controlled by how much adhesive left the nozzle, not by how long the valve stayed open. Curves go to your MES over PROFINET, tagged to the enclosure.
Run after the lid is fitted and tightened, against an IP67 target. Lid tightening is a servo operation at 8–25 N·m by recipe, and its torque and angle results release this hold.
Adhesive has an open time, stored with the recipe and counted from the moment the bead is laid. A pack that waits too long is held, not quietly passed on — proved by the same PROFINET trace.
Full specification: the cooling plate gluing station page.
Two holds, two jobs
200 kPaplate, 60 s hold
High pressure on an empty plate, where a failure costs one plate.
5 kPaclosed pack, 60 s hold
Low pressure on a sealed enclosure against IP67, where a failure costs the build.
Electrical testing after that — insulation, withstand voltage, total voltage and resistance, continuity — on the pack EOL testing page.
People, not machines
The module segment is where the automation sits. The pack segment is mostly people — worth saying plainly, because a drawing hides which is which.
Each of the 32 positions is labelled on the station list you receive. In the pack segment on BLP-P8 the automatic floor gluing station is the automated position; the rest are people with fixtures, torque tools and test stations.
Not a gap
On a 400 kg pack, a person with a fixture is faster to set up, faster to change over and easier to re-deploy than a machine cut to one enclosure — which covers most of the segment:
Automation pays upstream instead — grading to a signed window, pressing to a recorded curve, welding to a stored recipe.
BLP-CV is rated at ≥200 kg and runs at up to 20 m/min — roughly double the ≤100 kg blueprint module, because the fixture travels with it. It appears against the pack segment because it delivers modules into that segment’s handover, not because it carries the finished 400 kg pack.
Rebuild it yourself
Output figures are only useful if you can rebuild them. Every factor is here — change one and the band moves.
500 MWh – 1 GWh
Semi-automatic economy tier, 56 × 10 × 4 m, 200 kW installed. Blueprint 314 Ah cell, 300-day 8-hour basis.
1 – 2 GWh
High-automation tier, 54 × 20 × 4 m, 300 kW installed. Same cell, same basis — only the first factor changes.
Divide by 52.3 kWh for packs, 13.1 kWh for modules. A tier decision made in packs per year is clearer than one in gigawatt-hours — packs are what your customer orders.
Time utilisation × performance utilisation × first-pass yield, where first-pass yield is units in − NG unitsunits in. The 0.85 is that product, not availability alone.
Takt tier, footprint, installed power and headcount side by side across all three tiers: the capacity planning page, which is where a tier decision is best made.
Measured twice
Both are measured against criteria written station by station and signed before the line ships — the three liquid-cooling thresholds above included.
Your cells, busbars, end plates, enclosures and cooling plates, on the line in its shipping configuration.
Counted at the feeding point, with human factors excluded in writing beforehand.
The eight-step sequence, the material list and what training covers: the FAT and SAT acceptance page.
Seven lines
Everything above becomes specific once your product is on the table. Send these seven.
Single-station questions reach the same engineer: contact.
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
A drawing and a number are enough. Send them to our engineering team and a layout, a station list with automation labels and a tier recommendation come back within 24 hours.