# Project Scale: Rough Numbers One-page sizing of the whole project. Everything here is a planning estimate derived from the session's vendor data and standard ratios; figures marked "estimate" have no vendor confirmation yet. Update this page as real quotes and the site decision land. ## Production capacity | Phase | Fleet | Rough output | |---|---|---| | Launch | 1 semi-auto press (Newbilt Single, the first half of Duplex system 1), 1 shift | ~90,000 to 135,000 records/yr | | Duplex | 2 semi-auto presses (Duplex system 1: EX 50 main and EX 35 colour extruder), 1 to 2 shifts | ~175,000 to 540,000 records/yr | | Mature | 4 semi-auto (two Duplex systems, each EX 50 + EX 35) + 1 automated (Newbilt Classic), 2 shifts | ~1.0 to 1.5 million records/yr | | Expansion (option) | the mature fleet + up to 10 more Newbilt Classics, 2 shifts | ~4.7 to 5.8 million records/yr (estimate) | The [press fleet calculator](fleet-calculator.html) sizes the fleet for any yearly output and specials share, with the people and utilities it needs; at the user's planning rates (3 records a minute per Duplex system, 2 per Classic, 65 % effectiveness, two shifts) the start fleet makes ~1.5 million records a year and a full Payap press hall (two Duplex systems and eleven Classics) ~5.2 million. Basis: the current fleet plan of October 2026 ([pressing line](equipment/pressing-line.md)). The automated Classic ~128 records/hour (28 s cycle, vendor flyer); semi-automatic throughput is unpublished, assumed 60 to 80 records/hour per press with operator handling (estimate); 16 h/day, 300 days/yr, with realistic overall effectiveness of 60 to 70% applied: 368 to 448 records/hour, ~1.06 to 1.5 million a year. The theoretical ceiling of the mature fleet at 100% uptime is roughly 1.8 to 2.2 million records per year. (The earlier 50/50 fleet, two semi-automatic presses and two Pheenix AD12s, landed in the same range.) The expansion row is an option the plant keeps room for, not a plan: ten more Classics add ~1,280 records/hour on the same basis, and neither the [revenue model](finance/revenue-model.md) nor the investment includes them. **The 60–70% effectiveness assumption is worth challenging, but not yet changing.** Newbilt publishes ≥95% yield and ≥95% uptime for the Classic 12" automatic at a 28 s cycle (~128 records/h), and quotes ~30 s average for the Duplex. Three reasons not to adjust anything on that basis: - **Machine uptime is not plant OEE.** A vendor uptime figure excludes stamper and mould changes, label reels, colour changeovers, PVC lot changes, first-article QC and breaks — precisely the losses that dominate a short-run boutique plant. They are different quantities. - It would apply only to the **automated press** (the Classic). The 60–80/h semi-auto figure already embeds operator handling, so applying an uplift to that half would double-count. - 0.95 × 0.95 is 0.90 before any performance factor; reaching 80% OEE needs a performance factor near 0.89, which nobody has estimated. Ask both press vendors for the **basis** of their uptime and yield figures — measured over what period, at what run length, counting which stoppages — as part of the re-quote. It is a free question. If the figures survive scrutiny they would argue for a higher OEE on the automated fleet only, and the same logic would apply to any competitor running the same machine. ## Building | Zone | Rough area | |---|---| | Semi-auto press hall (Newbilt Duplex spec) | ~200 m² | | Automated press zone | ~100 to 150 m² | | Galvanics clean room + water treatment + chemical storage | ~80 to 150 m² | | Mastering and cutting room | ~40 to 60 m² | | Stamper prep | ~30 m² | | Packaging + finished goods warehouse | ~300 to 500 m² | | Utility rooms (boiler, compressor, chiller, electrical) | ~100 to 150 m² | | Offices, QC/listening, archive, IT, entrance | ~150 to 200 m² | | Maintenance workshop and machine bay (crane-served) | ~100 to 150 m² | | Visitor corridor (glazed, ground level) | ~110 to 130 m² | | Circulation, walls, misc | ~150 to 250 m² | | **Total under roof** | **~1,400 to 2,000 m²** | The HVAC budget in the utilities CSV already assumes ~1,500 m² conditioned. Single story throughout: all heavy equipment needs ground-slab floor loading (multiple tons per m²). The workshop and the visitor corridor were added in October 2026, together with an overhead crane over the production compartment; what they need and what they change in the shell is in [crane, workshop and tours](crane-workshop-tours.md). They add ~210 to 280 m² to a program that already filled the 60 × 25 m footprint, which settles the open question below in favour of growing the program into the floor the utility yard frees: at the lower half of the table everything fits; at the upper half, finished goods move to the phase 2 building. ### Detached utility yard, parking, and what that moves The massing model puts the boiler and chiller in a **detached utility yard** alongside the main building rather than inside it, which is what the boiler's own-room requirement in [facility security](facility-security.md) and biomass fuel delivery both push toward: | | Area | Height | |---|---|---| | Boiler hall | 66 m² | 6.0 m | | Biomass fuel store | 42 m² | 5.0 m | | Chiller room | 60 m² | 5.0 m | | Cooling tower (outdoor pad) | 10 m² | 3.5 m | | Flue stack | - | 14 m | Boiler plus chiller at 126 m² lands inside the 100 to 150 m² the zone table allows, but moving them out of the main shed frees that floor for production, so either the main building shrinks by ~126 m² or the program grows into it. Decide which before the building is priced. Staff parking is roofed, in the front yard clear of the loading route: **10 car bays** (27.7 × 7.0 m canopy, 195 m²) and **~30 scooter spaces** (13.7 × 5.5 m, 76 m²), carrying a further **~40 kWp** of PV on their canopies — dimensions per the modelled layout in the [construction RFQ](finance/phase1-construction-rfq.md). At 4.1 m and 3.5 m they sit below the main building's 7.0 m low eave, so they cannot shade it. ### Expansion headroom: a second building Tested against the candidate Mueang Chi parcel, in the massing model at `factory_building_rough.FCStd`. The whole zone table above fits inside one 60 × 25 m building, so a second one is expansion **beyond** the current program — doubling pressing capacity, or moving finished goods out to free production floor — not a gap in it. | | Phase 1 | Phase 2 | Total | |---|---|---|---| | Footprint | 60 × 25 m — 1,500 m² | 45 × 38 m — 1,710 m² | 3,210 m² | | Roof PV | ~247 kWp | ~251 kWp | **~498 kWp** | | Tightest boundary clearance | 15.7 m | 3.0 m | | - **45 × 38 m is the sweet spot.** The plot narrows going south, so past ~45 m of length the width falls away faster than length adds: 40 m gives 1,607 m², 45 m gives 1,723 m², 50 m drops to 1,558 m², and beyond 65 m nothing useful fits. - **A 20 m yard** between the buildings covers fire separation and shared loading off the phase 1 circulation road. - **Roof form: two-bay sawtooth, shaded rows deliberately left empty.** A single 38 m monopitch would be the best solar answer — 28 panel rows, none shaded, ~17% more yield than what is drawn, but it needs a **13.7 m** high wall. The sawtooth holds the high side to **10.35 m**, at a cost: each bay falls toward ESE onto the next bay's 3.35 m riser, so the bottom rows sit in shadow (the lowest is blocked below a 53° sun profile angle). Those two rows on the first bay are left empty rather than populated, which trades ~8% of the roof's yield for clean strings, no mismatch losses, and a maintenance walkway. Building height won this trade; revisit it if cladding a 13.7 m wall turns out cheaper than the lost generation. A 7° single pitch (11.7 m high side) sits between the two if wanted. - **Coverage stays comfortable**: 3,210 m² is 39% of the deed area (34% of the mapped extent), well under the 50 to 60% typically allowed. - **The two roofs together clear 500 kWp**, which removes the need for the ground-mount solar assumed further down this page. Two caveats. Phase 2's tightest corner sits **3.0 m** from the boundary and must be checked against the local ผังเมือง setback rule before it is taken as real. And the plot's zoning for factory use is still unverified — that gates phase 1 every bit as much as phase 2. ## Land: factory plot Industrial plots typically allow 50 to 60% building coverage, and the site needs truck access and turning, parking, the outdoor cooling tower, the separated BESS enclosure, possible ground-mount solar, and expansion room. - Minimum workable: **~4 rai** (6,400 m²) - Comfortable with expansion and ground-mount solar: **~6 to 8 rai** (9,600 to 12,800 m²) Separate asset: the **60 rai** forestry-classified parcel for coppice fuelwood (see [biomass](biomass.md)), pending its title check. It is a fuel plantation, not a factory site candidate unless the classification allows conversion, which forestry land generally does not. ## Electrical scale | Load | Rough figure | |---|---| | Pressing machinery (two Duplex systems + the Classic) | ~90 to 120 kW installed (estimate: 32 kVA per Duplex system by Newbilt's requirements; the second extruders and the Classic not yet published) | | Process chiller (250 kW cooling) | ~80 to 125 kW electrical | | Whole-factory HVAC | ~100 to 200 kW peak (estimate) | | Electric steam boiler (if chosen over biomass/LPG) | ~300 kW | | Compressed air, lighting, IT, misc | ~30 to 50 kW | | **Plant peak demand** | **~300 to 450 kW without electric boiler; ~600 to 750 kW with it** | Grid connection: a medium-voltage connection with a transformer in the **500 to 1,000 kVA** class from PEA, sized by the boiler decision. **Not yet re-based for the five-press fleet** (October 2026). The chiller and peak rows above are sized for one Duplex's ~250 kW of cooling; at Newbilt's up to 125 kW of cooling per press, five presses need up to ~625 kW, so the chiller's electrical draw and the plant peak rise accordingly. Re-size with the Newbilt re-quote figures, together with the steam below ([pressing line](equipment/pressing-line.md)). The presses share one central hydraulic plant and one compressed-air plant; their draw replaces the per-system hydraulic units in the pressing row above. The optional ten more Classics would need up to ~1.9 MW of cooling and ~2.3 to 2.7 t/h of steam: a utility phase of its own. Tariff: PEA Schedule 3.2.2, Medium General Service on time of use at 22 kV (the flat rate is closed to new customers): 132.93 THB/kW demand charge on the peak-hour maximum, 4.1839 THB/kWh peak (09:00 to 22:00 on weekdays) and 2.6037 THB/kWh off-peak, plus Ft (0.1623 THB/kWh for September to December 2026) and VAT. Two-shift production lands at a blended ~3.81 THB/kWh before the demand charge, roughly 4.3M to 6.4M THB a year without electric steam (estimate); the deposit for the connection is 400 THB per kVA. Detail and what it decides for steam, PV and the battery in [sustainability](sustainability.md#grid-tariff-pea-and-what-it-decides). Galvanics (Phase 5) is not in the table yet. By the Pheenix Alpha and Sibert datasheets, one electroforming line plus the stamper prep machines is ~30 kVA connected, two three-phase plating units and the rest single-phase (see [galvanics and stamper prep](equipment/galvanics.md)): small against the connection, but its own feeder and meter. ## Solar and storage - The phase 1 roof carries **~247 kWp** (425 modules on the 1,523 m² roof plane, per the [construction RFQ](finance/phase1-construction-rfq.md)). This supersedes the older rule of thumb of 150 to 200 kWp on a ~1,500 m² building, which the massing model has overtaken - Northern Thailand yield ~1,400 to 1,500 kWh/kWp/yr, so 300 kWp produces roughly **420 to 450 MWh/yr** - Plant consumption at mature two-shift operation: roughly **1,000 to 1,500 MWh/yr** without electric steam, up to **~2,500 MWh/yr** with it (estimate), so 300 kWp covers roughly **28 to 45%** of consumption without electric steam, falling to **~17%** with it; a bigger array shifts that up - Battery: **271 kWh** Gobel stack (ride-through, roughly two to three hours of the chiller's electrical draw; peak shaving earns little under PEA's time-of-use tariff, see [sustainability](sustainability.md#grid-tariff-pea-and-what-it-decides)) ## Steam and fuel - Boiler: **400 kg/h at 10 bar / 180 °C** (~300 kW thermal), sized for one Duplex. The current five-press fleet draws **~750 to 900 kg/h** at Newbilt's 150 to 180 kg/h per press: not yet re-based, and the fuel figures below scale with it - If biomass: **~350 to 400 t/yr** air-dry wood at mature operation, of which the 60 rai coppice could supply **~80 to 135 t/yr** - If LPG: **~2.5 to 5 t** bulk tank on site (no gas pipeline in the North) ## People Rough mature-operation headcount (estimate): 4 to 6 press/finishing operators per shift, 2 to 3 galvanics, 1 to 2 mastering/cutting engineers, 1 to 2 QC, 2 maintenance, 3 to 5 admin/sales/logistics. Roughly **15 to 25 people** across shifts at maturity, fewer than half that at launch. For galvanics, OMS's rule of thumb (one person runs about 20 stampers a day, two from about 30) against the 8 to 20 parts a day at full capacity points to one operator per shift ([galvanics and stamper prep](equipment/galvanics.md)). ## Money (cross-references) Figures in USD and THB at 1 USD = 33 THB (5 August 2026); vendor quotes keep their original currency alongside. - Newbilt semi-auto line: **~USD 232k (~7.7M THB)**, from the June 2024 quote of EUR 200,500 — expired, in [pressing-line](equipment/pressing-line.md) - Thai-sourced utilities, HVAC, racking, solar, BESS baseline: **~24M to 42M THB (~USD 730k to 1.27M)**, detail in the [utilities CSV](finance/utilities-investment.csv) - Not yet priced: the second Duplex system and the Newbilt Classic (estimates in [total investment](finance/total-investment.md)), galvanics line, mastering/cutting room, metrology, building construction/fit-out, land