# Makelab — Complete Site Content

> On-demand 3D printing service based in Brooklyn, NY. 5 technologies, 23 materials, 5,000+ parts per week. 97% on-time delivery. Made in the USA.

This document contains comprehensive content from makelab.com for AI assistants, search engines, and LLMs.

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## Company Overview

Makelab is a production-grade 3D printing service headquartered in Brooklyn, New York. We manufacture prototypes, production parts, and large-format pieces for engineering teams across consumer electronics, medical devices, architecture, automotive, aerospace, robotics, and marketing/entertainment. Our production facility processes over 5,000 parts per week across 5 additive manufacturing technologies and 23 materials, with a 97% on-time delivery rate. All manufacturing is done in the USA.

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## Technologies (5)

### FDM (Fused Deposition Modeling)
- Full name: Fused Deposition Modeling
- Process: Thermoplastic filament extruded layer by layer
- Layer height: 0.1-0.3mm
- Tolerances: +/-0.5mm
- Min wall thickness: 1.2mm
- Max build size: 360 x 360 x 360mm
- Lead time: From 1 business day
- Materials: PLA, PETG, TPU, ASA, PC CF
- Best for: Jigs and fixtures, functional prototypes, concept models, cost-sensitive runs
- Strengths: Lowest cost per part, 5 engineering materials, 360mm build volume, fastest turnaround, tough thermoplastics
- Limitations: Visible layer lines, lower accuracy than SLA, anisotropic strength, support marks, not ideal for fine detail
- Design tips: Min wall 1.2mm, min hole 2.0mm, overhang 50 degrees, tolerance +/-0.5mm, min feature 1.8mm, min pin 1.8mm, bridge max 10mm, min clearance 0.2mm

### SLA (Stereolithography)
- Full name: Stereolithography
- Process: UV laser cures liquid photopolymer resin at 25-micron resolution
- Layer height: 0.025-0.1mm
- Tolerances: +/-0.2mm
- Min wall thickness: 0.8mm
- Max build size: 335 x 200 x 300mm
- Lead time: From 2 business days
- Materials: Standard Resin, Durable Resin, Tough 2K, Tough 1500, High Temp, Flexible, Elastic, Castable, Rigid 4K, Grey Pro, Rigid 10K
- Best for: Visual prototypes, medical models, casting patterns, high-detail parts, presentation models
- Strengths: Best surface finish (2 Ra um), tightest tolerances (+/-0.2mm), finest resolution (25 um), 12 material options, snap-fit validation
- Limitations: Smaller build volume, post-curing required, not UV stable outdoors, supports always required, higher cost than FDM
- Design tips: Min wall 0.8mm, min wall unsupported 1.5mm, min hole 0.5mm, supports always, tolerance +/-0.25mm, min feature 0.5mm, min pin 2.0mm, min clearance 0.125mm, drain holes yes, min thread M6

### Industrial SLA (Large-Format Stereolithography)
- Full name: Large-Format Stereolithography
- Process: Top-down UV laser cures resin at large scale
- Layer height: 0.05-0.15mm
- Tolerances: +/-0.2mm
- Min wall thickness: 1.0mm
- Max build size: 1000 x 1000 x 600mm
- Lead time: From 7 business days
- Materials: ABS-Like Resin, Optical Clear PMMA, Frosted PMMA
- Best for: Large enclosures, architectural models, trade show builds, industrial prototypes, tooling
- Strengths: Largest resin volume, presentation finish (5 Ra um), transparent materials, seamless assembly, precision at large scale
- Limitations: Longer lead time, higher cost, 3 resin materials only, large parts may need assembly, post-processing required
- Design tips: Min wall 1.0mm, min wall medium 2.0mm, min wall large 3.0mm, min hole 0.5mm, min hole support removal 10mm, tolerance +/-0.2mm, max piece 1000x1000x600mm, min feature 0.5mm, min clearance 0.125mm, supports always, drain holes yes

### MJF (HP Multi Jet Fusion)
- Full name: HP Multi Jet Fusion
- Process: Inkjet fusing agent + infrared energy fuses nylon powder
- Layer height: 0.08mm
- Tolerances: +/-0.3mm
- Min wall thickness: 0.7mm
- Max build size: 380 x 284 x 380mm
- Lead time: From 5 business days
- Materials: Nylon PA12, Nylon PA11, Nylon PA12 Glass Filled
- Best for: End-use production parts, production runs, complex geometries, automotive components, aerospace hardware
- Strengths: Production-grade strength, self-supporting, batch consistency, isotropic strength, cost-effective at volume
- Limitations: Matte textured finish, PA12 and PA11 only, dark gray/black color, smaller volume than FDM, larger min features
- Design tips: Min wall 0.7mm, preferred wall 1.3mm, max wall 7.0mm, min hole 1.0mm, min feature 0.8mm, drain holes yes, supports self-supporting, tolerance +/-0.3mm, min clearance 0.2mm

### FGF (Fused Granulate Fabrication)
- Full name: Fused Granulate Fabrication
- Process: Pelletized ABS extruded through 4-6mm nozzle on large gantry
- Layer height: 0.5-2.0mm
- Tolerances: +/-1.0mm
- Min wall thickness: 2.0mm
- Max build size: 1200 x 1000 x 1000mm
- Lead time: From 7 business days
- Materials: ABS
- Best for: Oversized builds, industrial tooling, trade show builds, props and sets, architectural elements
- Strengths: Largest volume (1200mm), low material cost, structural ABS, architectural scale, paintable and finishable
- Limitations: Coarsest layers, roughest finish, lowest accuracy, ABS only, thickest min wall
- Design tips: Min wall 2.0mm, min hole 5.0mm, avoid overhangs, tolerance +/-1.0mm, min feature 3.0mm, min clearance 2.0mm, simple geometry no supports

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## Materials (23)

### FDM Thermoplastics

#### PLA
- Technology: FDM
- Category: General Purpose
- Tensile strength: 51 MPa
- Tensile modulus: 2.3 GPa
- Elongation at break: 2.9%
- Impact strength: 25 J/m
- Heat deflection: 55C
- Surface roughness: 15 Ra um
- Density: 1.24 g/cm3
- Hardness: Shore D 81
- Max build: 360mm
- Properties: Rigid, biodegradable, good surface finish
- Best for: Concept models, visual prototypes, form-factor checks
- Limitations: Not heat resistant (softens at 55C), not UV stable, brittle under impact
- Colors: White, Black, Gray, Clear, Custom Color

#### PETG
- Technology: FDM
- Category: Tough and Durable
- Tensile strength: 47 MPa
- Tensile modulus: 1.5 GPa
- Elongation at break: 5.1%
- Impact strength: 80 J/m
- Heat deflection: 68C
- Surface roughness: 15 Ra um
- Density: 1.27 g/cm3
- Hardness: Shore D 74
- Max build: 360mm
- Properties: Chemical resistant, impact resistant, tough
- Best for: Functional prototypes, lab fixtures, production parts
- Limitations: Stringing can affect surface, not as stiff as PLA, harder to post-process
- Colors: White, Black, Custom Color

#### TPU
- Technology: FDM
- Category: Flexible and Elastic
- Tensile strength: 41 MPa
- Tensile modulus: 0.004 GPa
- Elongation at break: 563%
- Impact strength: 160 J/m (no break)
- Heat deflection: 79C
- Surface roughness: 25 Ra um
- Density: 1.25 g/cm3
- Hardness: Shore 95A
- Max build: 360mm
- Properties: Flexible, durable, Shore 95A
- Best for: Gaskets, grips, vibration dampening, bumpers
- Colors: Black

#### ASA
- Technology: FDM
- Category: Outdoor and UV Resistant
- Tensile strength: 42 MPa
- Tensile modulus: 1.6 GPa
- Elongation at break: 3.4%
- Impact strength: 90 J/m
- Heat deflection: 93C
- Surface roughness: 15 Ra um
- Density: 1.07 g/cm3
- Hardness: Shore D 78
- Max build: 360mm
- Properties: UV resistant, weather resistant
- Best for: Outdoor enclosures, rooftop brackets, automotive exterior trim

#### PC CF (Polycarbonate Carbon Fiber)
- Technology: FDM
- Category: Engineering Grade
- Tensile strength: 64 MPa
- Tensile modulus: 8.0 GPa
- Elongation at break: 4.6%
- Impact strength: 75 J/m
- Heat deflection: 114C
- Surface roughness: 20 Ra um
- Density: 1.22 g/cm3
- Hardness: Shore D 83
- Max build: 360mm
- Properties: High stiffness, heat resistant, dimensionally stable
- Best for: Structural brackets, high-temp applications, demanding structural parts

### SLA Resins

#### Standard Resin
- Technology: SLA
- Tensile strength: 47 MPa
- Tensile modulus: 2.2 GPa
- Elongation at break: 10%
- Impact strength: 29 J/m
- Heat deflection: 61C
- Surface roughness: 2 Ra um
- Density: 1.18 g/cm3
- Hardness: Shore D 78
- Max build: 145mm
- Best for: Visual prototypes, concept models, client presentations

#### Grey Pro Resin
- Technology: SLA
- Tensile strength: 61 MPa
- Tensile modulus: 2.6 GPa
- Elongation at break: 13%
- Impact strength: 19 J/m
- Heat deflection: 78C
- Surface roughness: 2 Ra um
- Density: 1.18 g/cm3
- Hardness: Shore D 80
- Max build: 145mm
- Best for: Concept modeling, functional prototyping, precision parts

#### Durable Resin
- Technology: SLA
- Tensile strength: 28 MPa
- Tensile modulus: 1.0 GPa
- Elongation at break: 55%
- Impact strength: 127 J/m
- Heat deflection: 41C
- Surface roughness: 3 Ra um
- Density: 1.06 g/cm3
- Hardness: Shore D 58
- Max build: 145mm
- Best for: Snap fits, living hinges, fatigue-resistant parts

#### Tough 2K
- Technology: SLA
- Tensile strength: 40 MPa
- Tensile modulus: 1.8 GPa
- Elongation at break: 79%
- Impact strength: 25 J/m
- Heat deflection: 70C
- Surface roughness: 3 Ra um
- Density: 1.12 g/cm3
- Hardness: Shore D 76
- Max build: 145mm
- Best for: Functional prototypes needing impact resistance, ABS-like toughness

#### Tough 1500
- Technology: SLA
- Tensile strength: 34 MPa
- Tensile modulus: 1.46 GPa
- Elongation at break: 155%
- Impact strength: 45 J/m
- Heat deflection: 66C
- Surface roughness: 3 Ra um
- Density: 1.1 g/cm3
- Hardness: Shore D 76
- Max build: 145mm
- Best for: PP-like toughness, high impact resistance, flexibility

#### Rigid 4K
- Technology: SLA
- Tensile strength: 69 MPa
- Tensile modulus: 4.1 GPa
- Elongation at break: 5.3%
- Impact strength: 23 J/m
- Heat deflection: 77C
- Surface roughness: 3 Ra um
- Density: 1.35 g/cm3
- Hardness: Shore D 86
- Max build: 145mm
- Best for: Molds, jigs, fixtures, high-stiffness parts

#### Rigid 10K
- Technology: SLA
- Tensile strength: 65 MPa
- Tensile modulus: 10.0 GPa
- Elongation at break: 1%
- Impact strength: 20 J/m
- Heat deflection: 78C
- Surface roughness: 3 Ra um
- Density: 1.55 g/cm3
- Hardness: Shore D 90
- Max build: 145mm
- Best for: Precise industrial parts under significant load, stiffest SLA material

#### High Temp
- Technology: SLA
- Tensile strength: 58 MPa
- Tensile modulus: 3.4 GPa
- Elongation at break: 2.3%
- Impact strength: 18 J/m
- Heat deflection: 238C
- Surface roughness: 3 Ra um
- Density: 1.28 g/cm3
- Hardness: Shore D 85
- Max build: 145mm
- Best for: Molds, tooling, thermal testing, autoclavable instruments

#### Flexible
- Technology: SLA
- Tensile strength: 8.9 MPa
- Elongation at break: 120%
- Impact strength: 60 J/m (no break)
- Heat deflection: 55C
- Hardness: Shore 80A
- Density: 1.05 g/cm3
- Max build: 145mm
- Best for: Gaskets, seals, soft-touch components

#### Elastic
- Technology: SLA
- Tensile strength: 3.4 MPa
- Elongation at break: 160%
- Impact strength: 100 J/m (no break)
- Hardness: Shore 55A
- Density: 1.05 g/cm3
- Max build: 145mm
- Best for: Wearables, skin-contact parts, highly elastic applications

#### Castable
- Technology: SLA
- Tensile strength: 12 MPa
- Tensile modulus: 0.22 GPa
- Elongation at break: 13%
- Surface roughness: 1 Ra um
- Density: 1.1 g/cm3
- Max build: 145mm
- Best for: Investment casting patterns, jewelry, metal part production. Burns out cleanly, zero ash residue.

### Industrial SLA Resins

#### ABS-Like Resin
- Technology: Industrial SLA
- Tensile strength: 58 MPa
- Tensile modulus: 2.7 GPa
- Elongation at break: 16%
- Impact strength: 64 J/m
- Heat deflection: 66C
- Surface roughness: 5 Ra um
- Density: 1.15 g/cm3
- Hardness: Shore D 79
- Max build: 1000mm
- Best for: Large functional parts, enclosures, assemblies

#### Optical Clear PMMA
- Technology: Industrial SLA
- Light transmission: 90%
- Tensile strength: 28 MPa
- Tensile modulus: 2.28 GPa
- Elongation at break: 16%
- Surface roughness: 1 Ra um
- Density: 1.13 g/cm3
- Max build: 1000mm
- Best for: Light pipes, lenses, visual models requiring clarity

#### Frosted PMMA
- Technology: Industrial SLA
- Light transmission: 60%
- Tensile strength: 28 MPa
- Tensile modulus: 2.5 GPa
- Elongation at break: 16%
- Surface roughness: 3 Ra um
- Density: 1.13 g/cm3
- Max build: 1000mm
- Best for: Lighting, display models, medical visualization

### MJF Nylons

#### Nylon PA12
- Technology: MJF
- Tensile strength: 48 MPa
- Tensile modulus: 1.7 GPa
- Elongation at break: 20%
- Impact strength: 53 J/m
- Heat deflection: 175C
- Surface roughness: 10 Ra um
- Density: 1.01 g/cm3
- Hardness: Shore D 73
- Max build: 340mm
- Best for: Production parts, brackets, clips, housings, structural components

#### Nylon PA11
- Technology: MJF
- Tensile strength: 52 MPa
- Tensile modulus: 1.8 GPa
- Elongation at break: 50%
- Impact strength: 80 J/m
- Heat deflection: 185C
- Surface roughness: 10 Ra um
- Density: 1.05 g/cm3
- Hardness: Shore D 80
- Max build: 340mm
- Best for: Ductile parts, living hinges, snap-fits, energy-absorbing components. Bio-based (castor oil).

#### Nylon PA12 Glass Filled
- Technology: MJF
- Tensile strength: 30 MPa
- Tensile modulus: 2.5 GPa
- Elongation at break: 10%
- Impact strength: 80 J/m
- Heat deflection: 174C
- Surface roughness: 10 Ra um
- Density: 1.3 g/cm3
- Hardness: Shore D 82
- Max build: 340mm
- Best for: High stiffness structural applications, replaces machined aluminum in many cases

### FGF

#### ABS (Pellet)
- Technology: FGF
- Tensile strength: 55 MPa
- Tensile modulus: 2.35 GPa
- Elongation at break: varies
- Impact strength: 220 J/m
- Heat deflection: 95C
- Surface roughness: 60 Ra um
- Density: varies
- Hardness: Rockwell R 110
- Max build: 1200mm
- Best for: Oversized builds, industrial tooling, trade show props, architectural elements

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## Services

### Parts & Prototyping
- URL: /services/prototyping
- Volume: 1-50 parts per order
- Materials: 23
- Fastest lead time: 1 day
- Best tolerance: +/-0.2mm
- Technologies: FDM, SLA, Industrial SLA, MJF, FGF
- Description: Makelab produces functional prototypes and end-use parts across 23 materials on FDM, SLA, MJF, Industrial SLA, and FGF. From 1 part to 50 with no minimums, no tooling, and turnaround from 1 business day.

### Production Runs
- URL: /services/production
- Volume: 50 to 5,000+ parts per week
- On-time delivery: 97%
- QA checkpoints: 3
- Technologies: FDM, SLA, Industrial SLA, MJF
- Description: Makelab produces 50 to 5,000+ 3D printed parts per week with repeatable tolerances across every unit. 3-point QA on every order, 97% on-time delivery, in FDM, SLA, MJF, and Industrial SLA.

### XL 3D Printing
- URL: /services/xl
- Max build size: ~1200mm (FGF), ~1000mm (Industrial SLA)
- Assembly: Split, pin, bond, finish to seamless
- Technologies: Industrial SLA, FGF
- Description: Makelab prints large-format parts up to 1000mm single-piece on Industrial SLA and up to 1200mm on FGF. Beyond the build envelope, we split, pin, bond, and finish to seamless.

### Design Engineering
- URL: /services/design-engineering
- Services: DfAM, reverse engineering, scan-to-CAD, topology optimization
- Description: Makelab offers design for additive manufacturing (DfAM), reverse engineering, scan-to-CAD, and topology optimization. We take your geometry and make it printable, stronger, lighter, or cheaper, then hand back production-ready files.

### Large Format 3D Printing Service
- URL: /services/large-format-3d-printing
- Max: 1200mm (FGF), 1000mm (Industrial SLA)
- Description: Two large-format platforms under one roof. Industrial SLA for smooth-finish parts up to 1000x1000x600mm, FGF for structural parts up to 1200x1000x1000mm.

### Rapid Prototyping Service
- URL: /services/rapid-prototyping-service
- Lead time: 2-3 business days typical
- Materials: 23, Technologies: 5
- Description: Production-quality prototypes, same week. Same materials, same tolerances, same QC as production runs.

### SLA 3D Printing Service
- URL: /services/sla-3d-printing-service
- Layer height: 25 um min
- Resins: 14 options
- Max part: 1000mm (Industrial SLA)
- Description: Smooth-finish SLA in 14 resins for visual prototypes, snap-fit validation, and presentation models.

### MJF 3D Printing Service
- URL: /services/mjf-3d-printing-service
- Lead time: 3-5 days typical
- Tensile: 48 MPa (PA12)
- Tolerance: +/-0.3mm
- Description: HP Multi Jet Fusion production workhorse. Strong isotropic parts in Nylon PA12 and PA11.

### Injection Molding Alternative
- URL: /services/injection-molding-alternative
- Tooling cost: $0
- First part: 5 days
- Crossover volume: ~2,000 parts
- Description: Production-grade parts across FDM, SLA, and MJF with zero tooling cost, no minimums, 3-5 day lead times.

### FDM 3D Printing Service
- URL: /services/fdm-3d-printing-service
- Lead time: 2-3 days typical
- Materials: 6 engineering thermoplastics
- Max part: 360mm
- Description: Fastest turnaround, lowest cost per part, broadest catalog of engineering thermoplastics.

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## Technology Comparisons

### FDM vs SLA
FDM and SLA are the two most common 3D printing technologies. FDM melts thermoplastic filament layer by layer, is fast, affordable, and available in tough engineering materials. SLA cures liquid resin with a UV laser, delivering the best surface finish and tightest tolerances. Choose FDM when cost and speed matter most, or when you need tough engineering thermoplastics at larger build volumes. Choose SLA when surface finish, dimensional accuracy, or fine detail resolution is the priority.

### FDM vs MJF
FDM is the most affordable 3D printing technology, ideal for prototypes and functional parts where surface finish is secondary. MJF produces parts in production-grade Nylon PA12 and PA11 with consistent mechanical properties across batch runs. Choose FDM for early prototyping and large parts where cost matters. Choose MJF when you need production-grade mechanical properties and batch consistency.

### SLA vs MJF
SLA delivers the best surface finish and tightest tolerances, ideal for visual prototypes and snap-fit validation. MJF delivers the best mechanical properties and batch consistency for end-use production parts. These two technologies complement each other across the product development lifecycle.

### FDM vs Industrial SLA
Both print functional parts, but only one of them scales. FDM builds up to 360x360x360mm at the lowest cost per part. Industrial SLA prints up to 1700x800x600mm with presentation-quality surface finish. Choose FDM for cost-sensitive functional parts, Industrial SLA for large presentation-quality parts.

### MJF vs Injection Molding
Injection molding requires $30K-$100K in tooling and 8-12 weeks. MJF delivers production-grade parts with no tooling, no MOQ, and 3-5 day lead time. The crossover point is around 2,000-5,000 parts depending on geometry and timeline.

### FDM vs SLA vs MJF
Start with FDM for early concepts (fast, cheap). Move to SLA for precision prototyping (accurate). Scale to MJF for production (strong). This progression is how most successful hardware programs move through the shop.

### PLA vs PETG
PLA is cheapest and easiest to print, great for concept models. PETG is tougher, more heat-resistant, and chemically resistant, better for functional parts. PLA: 3.5 GPa modulus, 25 J/m impact, 52C HDT. PETG: 2.0 GPa modulus, 80 J/m impact, 70C HDT.

### Nylon PA12 vs PA11
PA12 is the default production material: stiffer, more heat-resistant, most widely used MJF nylon. PA11 is more ductile and impact-resistant, better for parts that flex or absorb energy. PA12: 1.8 GPa, 40 J/m, 175C HDT. PA11: 1.4 GPa, 100 J/m, 140C HDT. PA11 is bio-based (castor oil).

### Injection Molding vs 3D Printing
Below ~2,000 identical parts, 3D printing (MJF nylon) usually wins on total program cost. Above ~5,000, injection molding is hard to beat. This guide walks through the crossover point and hidden costs of tooling.

### CNC Machining vs 3D Printing
CNC removes material from solid billet (subtractive). 3D printing adds material layer by layer (additive). Choose CNC when tolerances are tight (under +/-0.05mm) or the geometry is prismatic. Choose 3D printing when geometry is complex, volume is low, or turnaround matters.

### Resin vs Filament 3D Printing
Resin (SLA) cures liquid photopolymer for smooth surfaces and fine detail. Filament (FDM) melts thermoplastic for tough, affordable parts. Choose resin when surface finish and precision matter. Choose filament when toughness, cost, and build volume matter.

### SLS vs MJF
Both produce production-grade nylon parts in a powder bed. MJF uses inkjet fusing agent across the entire layer at once (faster batch throughput), while SLS uses a laser point by point. MJF offers smoother surfaces and more consistent mechanical properties.

### FDM vs CNC
FDM is additive, building parts from filament. CNC is subtractive, removing material from solid billet. For prototype volumes under 10 parts, FDM is almost always faster and cheaper. CNC wins for tight tolerances and materials not available in 3D printing.

### MJF vs Urethane Casting
Urethane casting has been the go-to for low-volume production (10-500 parts) for decades. MJF competes directly without the mold step. Choose MJF when you need parts in a week, when material consistency matters, or when geometry has undercuts. Choose urethane when you need rubber-like elastomers not available in MJF.

### Prototyping vs Production
The 3D printer that builds your prototype is often not the same one that should build your production run. Use FDM or SLA for prototyping (fast, cheap). Switch to MJF for production (stronger, more consistent, cost-effective at scale).

### PLA vs ABS
PLA is plant-based, easy to print, stable at room temperature. ABS is petroleum-based, tougher, holds up to higher temperatures but warps during printing. For most modern FDM work, PETG is a better default than either.

### PETG vs ASA
PETG is the most-ordered FDM material, tough and chemically resistant. ASA is the outdoor specialist with dramatically better UV stability. Choose PETG for indoor functional parts, ASA for anything in direct sun.

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## Industries (7)

### Consumer Electronics
Enclosures, buttons, internal brackets, cable management clips, display bezels, battery compartments, snap-fit assemblies, sensor housings. Technologies: FDM, SLA, MJF.

### Medical & Biotech
Surgical guides, device housings, lab fixtures, anatomical models, custom tooling, wearable device shells, fluid handling manifolds, diagnostic instrument chassis. Technologies: SLA, MJF.

### Architecture & Design
Presentation models, facade studies, furniture prototypes, interior models, site models, massing studies. Technologies: SLA, Industrial SLA, FDM.

### Automotive
Functional prototypes, brackets, ducting, jigs, interior trim, sensor mounts, cable management. Technologies: FDM, MJF, SLA.

### Aerospace & Defense
Structural brackets, UAV components, sensor housings, wind tunnel models, lightweight structural parts. Technologies: MJF, FDM.

### Robotics & Hardware
End-effectors, sensor housings, structural components, cable management, custom brackets, gripper fingers. Technologies: FDM, MJF, SLA.

### Marketing & Entertainment
Props, set pieces, trade show builds, brand installations, oversized product replicas, sculptural pieces. Technologies: FGF, Industrial SLA, FDM.

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## Applications (35)

1. Rapid Prototyping: Functional prototypes in 2-3 business days. FDM, SLA, MJF.
2. Production Parts: 50 to 5,000+ parts, no tooling. MJF, FDM, SLA.
3. Hardware Development: Concept to production in one shop.
4. Large Format 3D Printing: Parts up to 1200mm.
5. Tooling & Fixtures: Custom production-line tooling.
6. Bridge Manufacturing: Ship product while mold tooling is cut.
7. Replacement & Spare Parts: On-demand spares without inventory.
8. Custom Enclosures: Housings and enclosures to spec.
9. Low Volume Manufacturing: Hundreds to thousands without tooling.
10. Presentation Models & Props: Camera-ready models and display pieces.
11. Casting Patterns: Investment casting patterns in Castable resin.
12. Medical & Anatomical Models: Surgical planning and training models.
13. End-Use Consumer Products: Direct-to-consumer 3D printed parts.
14. Design Verification & Testing: Validate form, fit, function.
15. Product Design Validation: Test designs with production-grade materials.
16. Investor Samples: Presentation-quality parts for fundraising.
17. Pre-Production Testing: Validate tolerances and material behavior.
18. Jigs and Fixtures: Assembly line tooling printed in days.
19. End-Use Production Parts: Parts that ship to customers.
20. Supply Chain Supplementation: Fill gaps without retooling.
21. Low-Volume Serial Production: Identical parts without MOQs.
22. Replacement Parts Programs: On-demand spares for legacy products.
23. Architectural Models: Scale models at true dimensions.
24. Trade Show Builds: Oversized displays and product replicas.
25. Industrial Housings and Enclosures: Full-size prototypes before sheet metal.
26. Tooling and Molds: Large-format mold masters.
27. Props and Set Pieces: Film, TV, commercial production props.
28. Wind Tunnel Models: Dimensionally accurate aerodynamic test models.
29. Legacy Part Replacement: Reverse-engineer discontinued parts.
30. Part Consolidation: Combine multi-part assemblies.
31. Lightweighting: Topology optimization and lattice structures.
32. Manufacturability Analysis: Evaluate printability before production.
33. Scan-to-CAD: Convert 3D scans to production CAD.
34. Tooling Design: Custom jigs, fixtures, mold masters for AM.
35. Fixture Optimization: Redesign fixtures for weight and ergonomics.

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## Locations

Makelab is headquartered in Brooklyn, NY and ships nationwide.

### Local (same-day pickup, next-day delivery)
Brooklyn (HQ), New York City, Manhattan, Queens, Bronx, Staten Island, Jersey City, Hoboken, Newark

### Express shipping (2-day)
San Francisco, Los Angeles, Boston, Seattle, Austin, Cleveland, Chicago, Denver, Detroit, Miami, Washington DC, Philadelphia, Oakland, San Jose, Palo Alto, Mountain View, Berkeley, South San Francisco, Fremont, Dallas, Houston, Atlanta, Phoenix, Portland, Minneapolis, Raleigh-Durham, Pittsburgh

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## Insights & Guides

1. What Is 3D Printing? A Complete Guide for Engineers and Designers
2. How Much Does 3D Printing Cost? A Breakdown by Technology and Material
3. How to Prepare STL Files for 3D Printing
4. Types of 3D Printing Technologies: A Complete Comparison
5. 3D Printing Materials Guide: FDM, SLA, and MJF Compared
6. How to Design for 3D Printing: A DFAM Guide
7. 3D Printing Tolerances Explained: What to Expect From FDM, SLA, and MJF
8. How to Choose a 3D Printing Service: The 10 Questions That Matter
9. Industrial vs Desktop 3D Printing: What Is the Actual Difference?
10. 3D Printing for Engineers: A Complete Working Reference
11. 3D Printing vs Traditional Manufacturing: When to Use Each
12. Rapid Prototyping: Faster, Cheaper, and More Flexible Product Development
13. What You Can Do With Resin 3D Printing
14. Practical DfAM Strategies to Help You Save on 3D Printing
15. Oversized Industrial SLA: What Engineers Need to Get Right

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## Contact

- Website: https://makelab.com
- Chat: https://help.makelab.com
- Intake Form: https://www.makelab.com/intake
- Location: Brooklyn, NY (production facility)
- Pickup: Mon-Fri 10am-5:30pm ET
- Shipping: Nationwide, 1-5 business days
- File formats: STL, OBJ, 3MF, STEP