To receive a quote from CNCLATHING.COM for 3D printing services, you need to:

1. Visit the 3D printing services page.

2. Upload your 3D CAD file (typically in STL, STEP, IGES, or Parasolid format).

3. Select your desired material, quantity, color, and finish.

4. Submit the form to receive a quote.

Most quotes are generated instantly through our online system. For highly complex designs or special material requests, a manual review may be needed, which typically takes less than 24 hours. The quote will include pricing, lead time, recommended process, and any manufacturability concerns.

At CNCLATHING.COM, we combine the flexibility of 3D printing with the precision of industrial manufacturing. Unlike hobbyist or consumer-level services, we offer access to industrial-grade 3D printers, certified materials, and engineering support throughout the process. Whether you are prototyping or scaling into production, our team ensures optimal print quality, cost-efficiency, and technical compatibility. Additionally, we offer multi-process manufacturing, meaning your 3D-printed parts can be post-machined, assembled, or combined with CNC, injection molding, or sheet metal components—all in-house.

CNCLATHING accepts the following file types for 3D printing:

• STL (.stl) – The industry standard for 3D printing, great for geometry-based models.

• STEP (.stp/.step) – Best for mechanical parts and assemblies with high accuracy.

• IGES (.igs/.iges) – Common in CAD systems for exchanging 3D data.

• Parasolid (.x_t/.x_b) – High-fidelity format used in engineering and simulation software.

Ensure that your file is:

• Watertight (no holes or missing surfaces).

• Free of non-manifold edges or self-intersections.

• Correctly scaled in millimeters or inches.

CNCLATHING offers a broad selection of 3D printing materials to meet functional, aesthetic, and mechanical requirements:

Plastics:

• ABS, PLA, PETG, TPU, PC – Common for FDM processes.

• Nylon 12 (PA12) – Used in SLS and MJF, known for durability.

• PEEK, ULTEM – High-performance plastics for demanding applications.

Metals (DMLS / Binder Jetting):

• Stainless Steel (316L, 17-4PH)

• Aluminum (AlSi10Mg)

• Titanium (Ti-6Al-4V)

• Tool Steel, Inconel, Copper

Resins (SLA / PolyJet):

• Standard Resin

• Tough Resin

• Clear Resin

• High-Temperature Resin

• Flexible Resin

Composites:

• Carbon Fiber-Filled Nylon

• Glass-Filled Nylon

Each material has unique properties such as strength, flexibility, heat resistance, or chemical stability. Visit our materials section for full datasheets.

CNCLATHING supports a wide range of 3D printing processes:

To make sure your design is printable:

• Maintain minimum wall thickness: 0.6 mm for plastics, 1.0 mm for metals.
• Use fillets and chamfers to reduce stress concentrations.
• Avoid unsupported overhangs >45° (especially in FDM and SLA).
• Add drain holes for hollow parts in SLS, MJF, or resin-based prints.
• Ensure clearances ≥0.5 mm between moving parts or assemblies.

Our team performs design checks and will alert you if any issues arise during quotation or pre-processing.

Lead times vary based on the process and volume:

• FDM, SLA, SLS, MJF: 1–3 business days for standard parts.
• DMLS, Binder Jetting: 5–10 business days.
• Post-processing (e.g., painting, polishing): +2–5 days depending on complexity.

Rush services are available for urgent orders.

Pricing depends on:

• Material cost (plastic vs. metal, commodity vs. high-performance).
• Part volume and geometry complexity.
• Technology used (e.g., SLA is cheaper than DMLS).
• Layer resolution and orientation.
• Post-processing (e.g., coloring, sanding).
• Order quantity – larger batches reduce cost per unit.

Optimizing your model for printability can substantially reduce costs.

We provide a range of finishing services:

• Sanding and polishing (for smooth surfaces).
• Painting and dyeing (matte, gloss, or custom colors).
• Vapor smoothing (for FDM ABS).
• Clear coating (used with SLA transparent parts).
• Threading, inserts, and mechanical finishing.
• Assembly and packaging for multi-component products.

These enhance the look, feel, and performance of your printed parts.

Yes. We prioritize your intellectual property:

• Secure servers and file encryption.
• Restricted access to your files internally.
• NDA (Non-Disclosure Agreement) available upon request.
• No file reuse or sharing without explicit permission.

We treat all customer files as confidential, regardless of order size.

Yes. Technologies like SLS and MJF allow for the printing of: Hinges, Gear systems, and Interlocked chains. Ensure a minimum gap of 0.5 mm between moving elements to ensure functionality and clearance for post-processing.

Yes, using PolyJet technology, we can:

• Print in full CMYK color.
• Combine rigid and flexible materials in one part.
• Simulate overmolds or soft-touch surfaces.

This is ideal for medical models, marketing samples, and product design prototypes.

We support a wide range of industries:

• Aerospace
• Medical & Dental
• Consumer Products
• Industrial Automation
• Automotive
• Electronics & Robotics
• Architecture
• Education & Research

We handle prototypes, functional testing, and low-volume manufacturing.

Yes. With technologies like SLS, MJF, and Binder Jetting, we support:

• Batch production
• Bridge tooling
• On-demand manufacturing

We ensure consistency in repeat runs and offer scalable production solutions.

FDM (Fused Deposition Modeling) uses thermoplastic filament that is melted and extruded through a heated nozzle to build parts layer by layer. It is the most common and affordable type of 3D printing. FDM printers are great for:

• Structural parts
• Larger models
• Printing in multiple colors (with dual extruders)
• Lower-cost prototyping

Resin printing (like SLA, DLP, or MSLA) uses UV light to cure liquid resin layer by layer. Resin printers provide:

• Higher resolution and detail
• Smoother surface finishes
• Better for miniatures, dental models, and intricate designs

However, resin printing involves:

• Toxic materials
• Post-processing (e.g., alcohol washing, UV curing)
• More safety gear (gloves, masks)

An FDM 3D printer typically includes:

• Print Bed: Where the model is printed.
• Hot End: Heats filament to extrusion temperature.
• Nozzle: Extrudes melted filament.
• Extruder: Feeds filament into the hot end.
• Gantry: Frame that moves the hot end or print bed.
• Stepper Motors: Control X, Y, Z movement.
• Screen: UI for controlling the printer.
• Power Supply: Powers the entire unit.
• Filament Spool Holder: Holds the filament.
• SD Card/USB Port: For loading print files.

Slicing is the process of converting a 3D model (usually in STL format) into instructions (G-code) that your 3D printer can understand. Slicer software allows you to:

• Adjust layer height, infill, support, and print speed
• Set temperatures for bed and nozzle
• Optimize print orientation for strength and quality
• Preview each layer before printing

Popular slicers include:

• Cura (free, open-source)
• PrusaSlicer
• Bamboo Studio
• IdeaMaker
• Simplify3D (paid)

Start with PLA or PLA+:

• Low warping
• Easy to print
• No enclosure needed
• Prints at 180–220°C

Other beginner-friendly filaments:

• PETG: Stronger and more flexible than PLA; prints at 230–260°C.
• TPU: Flexible, rubber-like; requires slower speeds and direct drive extruder.

Avoid ABS as a beginner — it requires:

• High temps (230–260°C)
• Heated bed and enclosure
• Ventilation (emits fumes)

• Infill: Determines how solid the inside of your print is.
  • Use 10–20% for decorative prints.
  • Use 50–100% for functional parts.
• Supports: Temporary structures added to hold up overhangs.
  • Necessary for models with arms, bridges, or steep angles.
• Layer Height: Defines print resolution.
  • Lower height (0.1 mm) = smoother finish, slower print.
  • Higher height (0.3 mm) = faster print, rougher layers.

The first layer is critical for adhesion. If it doesn’t stick:

• Prints may warp or fail entirely.
• Check bed leveling.
• Clean the bed with isopropyl alcohol.
• Use a glue stick or adhesion sheet if needed.
• Ensure proper Z-offset (distance between nozzle and bed).

Use a skirt or brim to prime the nozzle and ensure good flow.

Here are common issues and solutions:

Automatic Bed Leveling (ABL) uses sensors to measure the bed’s distance from the nozzle at multiple points. It adjusts the Z-height dynamically during printing to ensure a consistent first layer.

Benefits:

• Easier setup
• More reliable first layers
• Less manual calibration

ABL is recommended for beginners and anyone seeking less maintenance.

Yes, with:

• Dual extruder printers – Two nozzles, two filaments
• Multi-material units – Feed multiple filaments into one nozzle (e.g., Bambu AMS)
• Manual filament swaps – Pause the print and change filament by hand

You can print different colors, support materials (like PVA), or combine flexible and rigid materials.

3MF (3D Manufacturing Format) is a modern file format that includes:

• Model geometry
• Color and texture data
• Material info
• Author and metadata

Unlike STL (which only stores shape), 3MF is like a PDF for 3D printing — it contains everything needed for printing without extra files. Many slicers now support 3MF.

Bridging is when the printer spans filament over a gap without support. Example: printing a flat roof between two walls.

• Works best with cooling fans enabled
• Span should be short (under 25–50 mm)
• May sag if speed or temp is too high

Most filaments are hygroscopic — they absorb moisture from the air, which can cause bubbling, stringing, or brittleness.

Store filament in:

• Airtight containers with desiccants
• Dry boxes or filament dryers
• Vacuum-sealed bags

Especially important for: PETG, Nylon, TPU, PC, and PVA

Not easily. True metal 3D printing (like DMLS) requires: Industrial-grade machines, Inert gas chambers, High-power lasers. However, metal-filled filaments exist — PLA blended with metal powders (e.g., bronze, copper). These can be polished to a metallic sheen but are still plastic-based.

Resin safety:

• Use gloves and a mask
• Cure prints fully before handling
• Ventilate the space

FDM safety:

• Keep away from flammable materials
• Supervise prints to prevent fire
• Use printers in a well-ventilated area (especially with ABS)

Both SLA (Stereolithography) and DLP (Digital Light Processing) use UV light to cure resin layer by layer, but they differ in how that light is projected. SLA uses a laser to trace each layer, offering high precision but slower speeds. DLP uses a projector to flash an entire layer at once, making it faster but with slightly less detail on very small parts. DLP printers are often more compact and affordable, while SLA systems are preferred for industrial-grade accuracy.

MSLA (Masked Stereolithography) is a sub-type of resin printing that uses an LCD screen to mask a UV light source, curing one entire layer at a time. It combines the speed of DLP with the affordability of consumer-grade hardware. MSLA is commonly used in hobbyist and prosumer resin printers and offers excellent detail with lower costs than traditional SLA. It’s ideal for miniatures, dental models, and other high-resolution applications.

Both binder jetting and DMLS are used to create metal parts, but the processes are fundamentally different. Binder jetting uses a print head to deposit a binding agent onto a metal powder bed. The printed part is then sintered in a furnace. It allows for faster printing and lower costs, but the final parts may have slightly lower density. DMLS, on the other hand, directly melts the powder using a laser, producing fully dense, high-strength parts. DMLS is ideal for critical applications, while binder jetting is better for cost-effective production.

Carbon DLS (Digital Light Synthesis) is a proprietary technology that uses continuous liquid interface production (CLIP) to cure resin with UV light and oxygen. Unlike traditional resin printing, DLS forms parts in a continuous motion, resulting in stronger, isotropic, and smoother parts with injection-molded quality. It’s ideal for end-use production, including medical devices, consumer products, and automotive components.

Support structures are temporary elements printed with the same material as the part to prevent overhangs from collapsing. They are removed manually after the print is complete.

Support materials refer to a secondary material (often water- or solvent-soluble) used in dual-extrusion printers. These supports dissolve away after printing, resulting in cleaner surface finishes and allowing for complex internal geometries that would be impossible to remove manually.

How you orient your part on the build plate can dramatically impact print quality, strength, and the need for supports. For example:

• Minimize overhangs to reduce support material.
• Align stress-bearing features with the layer direction for strength.
• Position flat surfaces downward for better adhesion and aesthetics.

Proper orientation also affects print time and post-processing effort.

PLA+ is a modified form of PLA that includes additives to improve its strength, ductility, and temperature resistance. While standard PLA is easy to print and great for decorative items, it can be brittle. PLA+ offers a good balance between PLA’s ease of use and the mechanical strength of materials like PETG or ABS. It’s ideal for beginners who want tougher parts without sacrificing printability.

TPU (Thermoplastic Polyurethane) is a flexible, rubber-like filament used to print parts that need to bend, stretch, or compress. Use TPU for:

• Phone cases
• Wearables
• Gaskets
• Shock absorbers

TPU requires a direct-drive extruder for best results, as it’s soft and can jam in Bowden tube setups. Print slowly and ensure good bed adhesion.

Yes. If you want to evaluate surface finish, color, material, or resolution, we can provide:

• Sample parts
• Benchmark models
• Test coupons for functional evaluation

Contact us to request a sample kit.

Yes. CNCLATHING specializes in both prototyping and production. With access to high-throughput technologies like HP MJF, Carbon DLS, and SLS, we offer scalable solutions for:

• Low-volume production (10–1000 units)
• Bridge manufacturing
• Supply chain flexibility for startups and OEMs

We also offer post-processing, assembly, and hybrid manufacturing to integrate 3D-printed parts into larger workflows.

You can reach us through:

• Email: [email protected]
• Online form: Contact Us
• Phone: Listed on our website

Our team of engineers is available to help with material selection, design fixes, and order tracking.

For more information and to request your quote, visit: https://www.cnclathing.com/3d-printing

CNC (Computer Numerical Control) machining is a manufacturing process where pre-programmed computer software controls the movement of cutting tools and machinery. The process enables the automated production of highly precise parts by removing material from a solid block (known as a blank or workpiece) using various cutting operations. CNC machining is widely used for prototyping, one-off parts, and full-scale production across industries such as aerospace, automotive, medical, and electronics.

CNCLATHING.COM offers a full range of CNC machining services, including 3-axis, 4-axis, and 5-axis CNC milling, CNC turning, EDM (Electrical Discharge Machining), and wire cutting. Our capabilities cover both low-volume and high-volume production runs with tight tolerances, complex geometries, and various post-processing options such as anodizing, polishing, and coating. We also support custom machining projects based on your specific drawings and design requirements.

What sets CNCLATHING.COM apart is our combination of precision equipment, experienced engineers, and one-stop digital manufacturing services. We operate on an ISO-certified quality management system to ensure accuracy and consistency during every production run. Our team provides not only machining but also design-for-manufacturability (DFM) support, material sourcing, and surface finishing. We also offer fast turnaround times, competitive pricing, and international shipping—all backed by responsive customer service.

To request a quote, simply upload your 3D CAD file (STEP, STP, IGES, etc.) through our website or email it directly to our team. Include any important specifications such as material type, surface finish, quantity, tolerances, and lead time. Once we receive your design, our engineers will analyze the part’s geometry and manufacturing requirements and provide a detailed quote, typically within 12–24 hours. The quote will include pricing, estimated lead time, and recommendations if any design optimizations are suggested.

Several key factors influence the cost of CNC machined parts:

• Material cost: Some materials are more expensive or harder to machine than others. For example, aluminum is easier and cheaper to process than titanium or stainless steel.
• Machining time: Complex geometries, tight tolerances, and deeper cuts increase cycle time and cost.
• Labor and setup: Production setup, tool changes, and quality control contribute to the total cost.
• Post-processing: Additional finishing like polishing, anodizing, or bead blasting adds cost.
• Order volume: Larger quantities usually reduce the cost per unit due to economies of scale.

To minimize costs, consider simplifying your part design by reducing complex features, avoiding deep cavities, and choosing materials that are easier to machine. Increasing wall thickness and lowering tolerance requirements where possible can also shorten machining time. Additionally, consolidating parts into fewer components or increasing order volume helps reduce per-part costs significantly.

Yes, delivery time is a major cost driver. Rush orders usually incur expedited fees due to machine prioritization, extended working hours, and express logistics. If your project allows for a standard or flexible lead time, you can benefit from lower pricing. Always communicate your timeline clearly when requesting a quote so we can provide scheduling options that fit your budget.

We support a wide variety of metals and plastics for CNC machining. Common materials include:

• Metals: Aluminum (6061, 7075), Stainless Steel (304, 316), Carbon Steel, Brass, Copper, Titanium, Magnesium
• Plastics: ABS, Nylon, Polycarbonate (PC), POM (Delrin), PTFE (Teflon), PP, Acrylic

All materials are industrial grade and suitable for both prototype and end-use applications. If you have a specific material in mind not listed on our site, feel free to contact us—we are always expanding our inventory.

Our CNC machines include 3-, 4-, and 5-axis milling centers, CNC lathes, Swiss-type turning machines, and EDM wire cutting systems. This equipment allows us to handle:

• Part sizes up to 1000 mm (milling) and Ø300 mm (turning)
• Tolerances as tight as ±0.004 mm
• Complex geometries and undercuts
• Internal threading, knurling, and grooving
• Batch production from 1 to 10,000+ units

We also offer secondary operations such as tapping, deburring, drilling, and assembly.

CNC milling involves rotating cutting tools that move around the stationary workpiece to remove material and create features like slots, holes, pockets, and contours. CNC turning, by contrast, rotates the workpiece while a stationary tool removes material. It is best suited for cylindrical parts such as shafts, sleeves, and bushings. CNCLATHING.COM offers both services, and hybrid machining if your part requires both milling and turning operations.

We can achieve tight tolerances of up to ±0.004 mm (±0.0002 inches) depending on the material, machining process, and part complexity. For most general-purpose parts, ±0.05 mm is standard. If your project requires high-precision components, please specify this in your quote request so we can recommend the appropriate process.

The CNC machining process starts with a 3D CAD file, which is converted into machine-readable code (G-code) using CAM software. This code guides the CNC machine to cut, drill, and shape the raw material into the final part. We recommend designing parts with CNC-friendly features such as uniform wall thickness, accessible geometries, and minimal undercuts to reduce cost and improve manufacturability. Our engineers are available to assist with DFM feedback during the quoting stage.

Yes, we specialize in CNC prototyping and short-run production. Our rapid prototyping service allows you to test form, fit, and function before committing to mass production. With fast lead times and support for engineering-grade materials, we can deliver fully functional prototypes in as little as 3–5 business days.

We accept a range of 3D file formats, including STEP (.step/.stp), IGES (.iges/.igs), Parasolid (.x_t/.x_b), and SolidWorks (.sldprt). For 2D drawings, we accept PDF, DWG, and DXF formats. Please include tolerances, surface finish requirements, and thread specifications in your drawings if available.

Yes, we offer a variety of surface finishes for both aesthetics and performance. Options include:

• Anodizing (Type II, III)
• Bead blasting
• Powder coating
• Polishing
• Brushing
• Black oxide
• Zinc/nickel plating

Post-processing services are available upon request and will be incorporated into your quote if specified.

We follow ISO 9001:2015-certified quality management protocols at every stage. All parts undergo in-process inspections, final quality checks, and dimensional verification using tools like CMMs (coordinate measuring machines), calipers, and micrometers. Upon request, we can provide material certifications, inspection reports, and first article inspection (FAI) documentation.

Absolutely. We recommend ordering a prototype or small batch first, especially for complex designs. This allows you to validate dimensions, tolerances, and material performance before scaling. Many clients use this step to iterate or refine their designs before committing to higher volumes.

Our CNC machining services support a wide range of industries, including:

• Aerospace & Defense
• Automotive
• Medical devices
• Consumer electronics
• Industrial machinery
• Robotics
• Energy & Automation

From functional prototypes to high-precision production parts, we serve startups, SMEs, and Fortune 500 companies worldwide.

Lead times vary based on part complexity, order quantity, and finishing requirements. For standard prototypes, lead times are typically 3–7 business days. Production orders may take 7–15 business days or longer for large batches and post-processing. Expedited services are available upon request.

Yes, CNCLATHING.COM ships globally. We work with trusted logistics partners to ensure fast and reliable delivery, including express options via DHL, FedEx, and UPS. Shipping costs and timelines will be clearly included in your quote.

If you’re ready to get started, you can request an instant CNC machining quote or contact our team for technical support and project consultation.

Our typical lead time for sheet metal fabrication is as fast as 3 working days, ensuring quick delivery for your projects.

To receive a quote for your sheet metal parts, simply upload your CAD model on our website (https://www.cnclathing.com/quote), and you’ll get a detailed quote within hours.

We offer a wide range of materials for sheet metal fabrication, including aluminum, stainless steel, steel, copper, brass and more. For more detailed information, please check out our sheet metal service page.

You can estimate the cost of your sheet metal parts by uploading your design to our platform for a free quote.

We can accommodate sheet metal parts with a minimum flat size of 0.5 in. x 0.5 in. (12.7mm x 12.7mm) for flat parts and 1.5 in. x 1.5 in. (38.1mm x 38.1mm) for formed parts, up to a maximum size of 47 in. x 119 in. (1,193.8mm x 3,022.6mm), with a maximum bend length of 10 ft. (3.048m). Our fabrication tolerances ensure precision across various features, allowing for high-quality results in your projects.

We provide an array of surface finishes for sheet metal products, including bead blast, anodizing, plating, powder coating, etc.

We maintain strict quality control measures through our certified processes and inspections, ensuring each part meets the specified requirements.

Yes, we have the flexibility to handle both small prototypes and large production runs to suit your project needs.

Choose CNCLATHING for our various sheet metal fabrication technology capabilities, fast turnaround, easy quoting, diverse material options, and commitment to quality, making us your ideal partner for sheet metal fabrication.

Standard delivery times for only manufacturing injection molded parts are as fast as 7 days, the tool design and production will take longer, depending on order complexity and volume.

We can produce over 10,000 injection molded parts in a single order, there is no minimum order quantity, accommodating various production needs.

Yes, we offer prototype production to validate designs before committing to batch production.

Costs for injection molded parts can be as low as $1-5 per unit at high volume, varying based on design complexity and material selection.

We can achieve tolerances as tight as +/- 0.003 in. (0.08mm), depending on the specifications and requirements of your project.

Absolutely! Our team is available to assist with material selection and to optimize your part designs for efficient molding.

Our quotes provide detailed pricing, material options, manufacturing insights, and any potential design concerns, all in real time.

We support a wide range of materials, including standard thermoplastics (ABS, PC, PE, PA, PEEK, PEI, PET, PMMA, PPA, etc.) and custom options tailored to your specific application needs. For more detailed information, please check out our molding service page.

Molding is ideal for high-volume production of complex plastic components with precise specifications, which is more recommended than other process especially when your application involves thermoplastic or thermoset materials, and needs to minimize waste and maximize production speed.

We offer ISO 9001, CE, and ICR certifications, ensuring that our services meet rigorous quality standards across multiple industries.

We retain your molds 1 to 2 years post-production, with options for extended storage available upon request.