Veľkoformátová živicová 3D tlač
Vysokorozlišovacia mSLA tlač vo veľkom meradle, veľké stavebné objemy, ultra-jemné vrstvy 0,025–0,05 mm a plná škála inžinierskych živíc pre diely produkčnej kvality.
Získať cenovú ponukuFour failure modes of seamed small-resin prints
Splitting a large resin part across multiple desktop prints introduces four quantifiable failure modes.
Ra 0.8 to 3 um on top face, Ra 10 to 20 um at glued joints
Visible bond seams on presentation surfaces
SLA as-built Ra sits at 0.8 to 3 micrometres on top faces and 2 to 6 micrometres on walls, but a glued joint usually reads Ra 10 to 20 micrometres locally because of adhesive fillet and sanding scars, so presentation-grade surfaces need manual rework along every seam.[9]
Desktop SLA runs IT7 to IT9 on 100 mm; assembly error compounds across 3 to 8 interfaces
Fit-up error across glued assemblies
Desktop SLA holds IT7 to IT9 on a 100 millimetre datum, but stacking four prints across a mating plane accumulates position error because each part carries its own orientation and post-cure shrinkage history.[10]
10 to 60 minute post-cure cycles per section; helmet shell in 4 pieces = 4 cures plus 3 bonds
Time-to-cure on thick-wall parts
Formlabs specifies post-cure cycles of 10 to 60 minutes on desktop stations, and chamber size caps the cure volume, so a helmet made from four bonded shells is cured four times and bonded three times before it is usable.[11]
Build-plate flatness tolerance around 0.1 mm across 300 to 400 mm span on Form 4L and Peopoly Forge
Build-plate flatness and peel forces at 300+ mm
Inverted vat geometry puts the full cross-section under peel load on every layer, and effective build-plate flatness for Form 4L and Peopoly Forge sits on the order of 0.1 millimetre across the full platform, a tolerance small SLA machines do not have to honour over that span.[1]
Large-format resin against its closest alternatives
Teams generally compare large-format resin to three alternatives: multi-piece SLA with bonding, large-format FDM on a BigRep class system, and a CNC-milled master with silicone mould.
| Factor | Large-Format Resin | Multi-Piece SLA + Assembly | Large-Format FDM | CNC Master + Silicone Mould |
|---|---|---|---|---|
| Build envelope | 277 by 156 by 300 mm to 500 by 450 by 600 mm | Up to 200 by 125 by 210 mm per desktop SLA section | 1000 by 500 by 500 mm on BigRep ONE class FDM | Limited by machining envelope of CNC master |
| Seam and joint count | Zero on a single-piece print | 3 to 8 glued interfaces per assembly | Zero on a single FDM part | Zero on cast, 1 split line per tool |
| First part lead time | 18 to 36 hours print plus post-cure | 3 to 5 days across 4 sections plus bonding | 24 to 72 hours for 500 mm class FDM | 5 to 10 days master plus 2 to 4 days mould |
| Surface Ra (as-built) | Ra 0.8 to 6 um as-built | Ra 0.8 to 6 um on faces, 10 to 20 um at seams | Ra 12 to 25 um at 100 um FDM layer | Ra 0.8 to 3 um on cast replica |
| XY resolution at envelope | 28 to 76 um pixel at 300 to 500 mm span | 50 um pixel on desktop SLA | 0.4 mm nozzle, feature minimum ~0.8 mm | 0.05 to 0.2 mm machining on soft master |
| Per-part cost on 1 kg shell | EUR 90 to EUR 220 per 1 kg shell | EUR 120 to EUR 280 per 4-section bonded shell | EUR 40 to EUR 120 in PLA or PETG | EUR 600 to EUR 2,000 amortised over first 10 casts |
Quantitative industry benchmarks
Benchmark data from Formlabs customer stories, vendor datasheets and industry analyses.
| Metric | Large-Format Resin | Alternative | Delta | Source |
|---|---|---|---|---|
| Climbing helmet prototype unit cost | USD 70 per Form 3L print | USD 425 outsourced industrial SLA | around 83% lower | [15] |
| Climbing helmet prototype lead time | 3 days in-house | 7 days outsourced | 57% shorter | [15] |
| Payback time on Form 3L for same workflow | around 3 months at prototype volume | not applicable | not applicable | [15] |
| Form 4L vs Form 4 build envelope | 24.2 L (353 by 196 by 350 mm) | 5.25 L (200 by 125 by 210 mm) Form 4 | 4.6x larger build envelope | [1] |
| Peopoly Forge vs Form 4L | 19.1 L with 28 um pixel (Peopoly Forge) | 24.2 L with 76 um pixel (Form 4L) | 2.7x finer pixel at 79% of volume | [3] |
| Architectural model cost reduction | Up to 75% cost reduction | Manual foam or wood modelmaking baseline | 75% lower | [21] |
| Architectural model lead time | Hours in-house | Several days manually | around 90% shorter | [21] |
| Capital entry point for 300+ mm resin | USD 5,000 to USD 25,000 modern MSLA | USD 100,000+ legacy industrial SLA | 75 to 95% lower | [2] |
Cost model at volumes 1, 10, 100, 1,000
Indicative numbers for a 1 kg helmet shell printed on a Form 4L class machine, based on published AM cost models and Formlabs customer data.
Three industry case studies
Three organisations covering the main modes in which large-format resin earns its place in a production shop.
USD 425 to USD 70 per print (~83% lower); 7 to 3 day lead time; 3-month payback
Black Diamond Equipment
Outdoor sports equipment · USA · 2020 · Formlabs Form 3L
Black Diamond moved climbing-helmet prototyping from an outsourced industrial SLA provider to an in-house Form 3L, iterating shell geometry and vent cutouts directly from CAD and post-curing full-size shells on a Form Cure L.[15]
SourceUp to 70% shorter build time for large presentation models
Zaha Hadid Architects
Architecture · UK · 2019-2022 · Formlabs SLA and Massivit gel-dispensing
Zaha Hadid Architects runs a mixed fleet pairing Formlabs SLA for detailed presentation models with Massivit for very large geometry; complex organic surfaces that used to require weeks of CNC machining and hand finishing now turn around in days.[26]
Source6+ prototype cycles per product per year versus 2 under prior tooling workflow
Decathlon SportsLab
Consumer sporting goods · France · 2020 · HP Multi Jet Fusion + Formlabs SLA
Decathlon's SportsLab uses SLA for ergonomic, visual and surface-sensitive prototypes of bike grips, climbing holds and goggles; large-format resin handles one-piece mock-ups that previously needed a tool or multi-part bonding.[27]
SourceTechnické špecifikácie
Dostupné živice
Limits and edge cases
Large-format resin is an emerging capability with a three-to-five year commercial track record on the current generation of 10K and 15-inch 8K machines, and three limits recur. Post-cure uniformity on thick parts is the first: Rigid 10K and Tough 2000 specify 405 nm cure cycles of 60 minutes or more at 80 degrees Celsius, and cure depth through a 5 mm wall is non-uniform unless the part is rotated in the cure chamber, so a thick helmet crown or solid lamp-shade boss can read 5 to 15% lower surface hardness on the interior until two cycles are applied.
The second is green-strength handling at the 400 mm plus layer-stack class: peel forces scale with layer area, so on a Peopoly Forge or Phrozen Sonic Mega 8K S the practitioner must manage orientation, support density and resin vat temperature to avoid layer shift on tall prints. The third is resin cost and post-processing share: large-format bath volumes consume 5 to 8 kg per filled print, and post-processing labour (wash, cure, support removal) is reported at 30 to 40% of total part cost in the AM cost literature.
MABS 3D perspective
MABS 3D operates large-format resin printing as a commercial service in Italy, as of 2026-04-19. The shop runs Form 4L class MSLA for parts up to around 350x200x350 mm in single-piece form and coordinates Peopoly Forge and Phrozen Sonic Mega 8K S capacity for taller or finer-pixel work. Typical services: STL or STEP intake, manifold and support review, printing in Formlabs Black Diamond, Rigid 10K, Tough 2000 or standard MSLA chemistries, wash and timed UV post-cure, support removal and light hand-finish. Each quote lists per-part resin mass, print hours and post-cure schedule.
Last updated: 2026-04-19
Často kladené otázky
Aká je maximálna veľkosť stavby pre veľkoformátovú živicovú tlač?
Naše veľkoformátové mSLA tlačiarne podporujú stavebné objemy výrazne väčšie ako štandardné stolné živicové tlačiarne. Kontaktujte nás s rozmermi vášho dielu pre overenie uskutočniteľnosti a potvrdenie presného stavebného objemu.
Aké výšky vrstiev sú k dispozícii?
Tlačíme pri výškach vrstiev 0,025 mm a 0,05 mm. 0,025 mm poskytuje najjemnejšiu kvalitu povrchu pre prezentačné a umelecké diely. 0,05 mm je štandardom pre funkčné prototypy a ponúka rýchlejšie obrátenie.
Aké živicové materiály ponúkate?
Štandardná živica pre vizuálne prototypy, pevná živica podobná ABS pre funkčné diely, flexibilná živica pre mäkko-dotykové a poddajné komponenty a odlievateľná živica pre pracovné toky precízneho odlievania. Zákazkové požiadavky na živice sú k dispozícii na dopyt.
Je post-processing zahrnutý v službe?
Áno. Všetky živicové výtlačky zahŕňajú umytie v IPA, UV post-vytvrdenie a odstránenie podporných štruktúr ako súčasť štandardnej služby. Brúsenie a maľovanie sú k dispozícii ako ďalšie možnosti post-processingu.
Ako sa veľkoformátová živica porovnáva s FDM pre veľké diely?
Veľkoformátová živica poskytuje výrazne jemnejšiu kvalitu povrchu (vrstvy 0,025 mm vs 0,10–0,20 mm) a užšie tolerancie (±0,05 mm vs ±0,15 mm). FDM je nákladovo efektívnejší pre veľké štrukturálne diely, kde je povrchová úprava sekundárna. Živica vyniká, keď bude diel viditeľný, manipulovaný alebo vyžaduje presnú geometriu.
When should a buyer skip resin and go to large-format FDM or silicone moulding?
Large-format FDM is the better choice when the part is longer than 500 mm on any axis and surface finish is not critical, since a BigRep or Modix class system prints a single piece there. Silicone moulding beats resin printing once the run reaches 10 or more identical organic shells because the amortised per-unit cost of a master plus mould drops below the printed resin per-part cost.
Methodology
All citations were retrieved on 2026-04-19. Vendor datasheet values for build envelopes, XY pixel, layer thickness and resin mechanical properties are taken at face value from the manufacturer product page or technical data sheet; peer-reviewed and NIST data are cited for cost-structure claims. Cost and lead-time ranges reflect the spread of published figures across the cited sources.
References
| # | Title | Authors | Year | Venue | URL |
|---|---|---|---|---|---|
| 1 | Form 4L Large-Format Technical Specifications | Formlabs | 2024 | Formlabs | Open source |
| 2 | How Much Does a 3D Printer Cost? (Formlabs industrial pricing analysis) | Formlabs | 2024 | Formlabs Blog | Open source |
| 3 | Peopoly Forge Large-Format Resin Printer Specifications | Peopoly | 2024 | Peopoly | Open source |
| 4 | Wohlers Report 2026: AM revenues reach USD 24.2 billion | TCT Magazine (reporting Wohlers/ASTM) | 2026 | TCT Magazine | Open source |
| 5 | ISO/ASTM 52900:2021 AM Fundamentals and Vocabulary | ISO | 2021 | ISO | Open source |
| 6 | Phrozen Sonic Mega 8K S Specifications | Phrozen | 2023 | Phrozen | Open source |
| 7 | Elegoo Jupiter Large-Format MSLA Specifications | Elegoo | 2023 | Elegoo | Open source |
| 8 | Peopoly Forge Product Page (detail) | Peopoly | 2024 | Peopoly | Open source |
| 9 | ISO 4287:1997 Surface texture: Profile method | ISO | 1997 | ISO | Open source |
| 10 | ISO 286-1:2010 ISO tolerances on linear sizes | ISO | 2010 | ISO | Open source |
| 11 | Post-Curing Resin Prints | Formlabs | 2024 | Formlabs Support | Open source |
| 12 | Form 4 Technical Specifications | Formlabs | 2024 | Formlabs | Open source |
| 13 | BigRep case studies (large-format FDM) | BigRep and NOWlab | 2020 | BigRep | Open source |
| 14 | A framework for assessing investment costs of AM | Progress in AM authors | 2022 | Progress in Additive Manufacturing 7: 1091-1106 | Open source |
| 15 | Black Diamond Equipment helmet prototyping with Form 3L | Formlabs | 2020 | Formlabs Customer Stories | Open source |
| 16 | How to Accurately Price for SLA 3D Printing Projects | 3D Printing Industry (editorial) | 2020 | 3D Printing Industry | Open source |
| 17 | Black Diamond Resin Product Page | Formlabs | 2024 | Formlabs Store | Open source |
| 18 | Rigid 10K Resin Technical Data Sheet | Formlabs | 2023 | Formlabs TDS | Open source |
| 19 | Tough 2000 Resin Technical Data Sheet | Formlabs | 2022 | Formlabs TDS | Open source |
| 20 | Analyzing Product Lifecycle Costs in AM | Lindemann, Jahnke, Moi, Koch | 2012 | SFF Symposium, UT Austin | Open source |
| 21 | 3D Printing Architectural Models: Time and Cost Reduction | Cimquest Inc. | 2021 | Cimquest | Open source |
| 22 | AM cost estimation models: classification review | Liu, Jiang, Cong, Yu, Zhao | 2020 | Int. J. Adv. Manuf. Tech. 107: 4033-4053 | Open source |
| 23 | Evaluation of Cost Structures of AM Processes | Baumers, Wits et al. | 2015 | Procedia CIRP 30: 311-316 | Open source |
| 24 | Costs and Cost Effectiveness of AM (NIST SP 1176) | Thomas, Gilbert | 2014 | NIST SP 1176 | Open source |
| 25 | Formlabs Form 3L product page | Formlabs | 2020 | Formlabs | Open source |
| 26 | ZHA uses Massivit and Formlabs for models | Formlabs (ZHA case study) | 2019-2022 | Formlabs | Open source |
| 27 | Decathlon uses HP MJF and Formlabs SLA | Formlabs (Decathlon case study) | 2020 | Formlabs | Open source |
| 28 | Foster and Partners modelshop rapid prototyping | Foster and Partners | 2018-2021 | Foster and Partners | Open source |
| 29 | Philips SLS and SLA fleets for shavers and toothbrushes | Philips Research | 2019 | Philips Innovation Matters | Open source |
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