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Swiss Lathe Processing Services

Swiss Lathe Processing for Precision Turned Parts

High-precision Swiss lathe processing for prototypes, low-volume production, and repeat batch orders. We manufacture accurate cylindrical and complex turned components with stable dimensions, efficient production, and reliable quality control.

Key Capabilities

  • Machining accuracy of 0.012–0.016 mm, reaching IT6–IT7
  • Flexible support from prototypes to low-volume and batch production
  • Precision turning for custom metal parts with consistent repeatability

Core Swiss Lathe Capabilities

Our Swiss lathe processing services support precision turned parts from prototypes to batch production, delivering stable accuracy and repeatability for custom components.

Precision Swiss Turning

Accurate cylindrical and threaded parts.

Complex Turned Components

Multiple features completed efficiently.

Parts We Swiss Turn Every Day

From precision pins and shafts to bushings, fittings, connectors, and threaded components. Share your drawing for engineering review before production begins.

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Swiss-Turned Precision Parts

Precision Swiss-turned parts include shafts, threaded inserts, splined components, knurled parts, sleeves, and miniature mechanical components. Swiss lathe processing supports stable concentricity, detailed external features, internal threads, cross holes, and repeatable production for small-diameter parts.

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Complex CNC Machined Metal Parts

Complex CNC machined metal parts combine turned surfaces with milled profiles, mounting holes, pockets, flanges, and irregular features. Multi-process machining helps reduce repeated setups while maintaining alignment between cylindrical and non-rotational features.

Engineering Plastic & Prototype Parts

Engineering plastic parts are produced for functional testing, product development, assembly verification, and low-volume applications. CNC machining supports custom holes, slots, internal structures, transparent features, and complex plastic geometries without production tooling.

Materials Engineered for CNC Machining

Aluminum Alloys

Stainless Steels

Copper and Copper Alloys

Engineering Plastics

2011 Aluminum

Used for Swiss-turned fittings, threaded inserts, pins, and small precision components.

  • Excellent machinability and chip control
  • Supports fast, high-volume production
  • Produces clean threads and surface finish
  • Machining Difficulty: Low

  • Lead Time: 3 days

2024-T4 Aluminum Alloy

Used for Swiss-turned aerospace fittings, sleeves, pins, and lightweight structural components.

  • High strength-to-weight ratio
  • Suitable for detailed precision features
  • Good performance in demanding assemblies
  • Machining Difficulty: Medium

  • Lead Time: 4 days

6061-T6 Aluminum Alloy

Used for structural parts, housings, spacers, and general-purpose precision components.

  • Balanced strength, cost, and machinability
  • Good corrosion resistance
  • Suitable for anodizing and batch production
  • Machining Difficulty: Low

  • Lead Time: 3 days

6063 Aluminum Alloy

Used for sleeves, electronic hardware, decorative fittings, and anodized components.

  • Good surface quality after machining
  • Excellent corrosion resistance
  • Well suited to decorative anodizing
  • Machining Difficulty: Low

  • Lead Time: 3 days

6082 Aluminum Alloy

Used for Swiss-turned shafts, spacers, connectors, and structural mechanical components.

  • Good mechanical strength
  • Stable performance during bar machining
  • Suitable for precision threaded features
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

7075 Aluminum Alloy

Used for aerospace fasteners, high-strength shafts, pins, and load-bearing components.

  • Very high strength-to-weight ratio
  • Suitable for compact structural parts
  • Supports tight precision features
  • Machining Difficulty: Medium

  • Lead Time: 4 days

  • 2011-T3

  • 2024-T4

  • 6061-T6

  • 6063

  • 6082

  • 7075

SUS303 Stainless Steel

Used for Swiss-turned screws, shafts, bushings, fittings, and threaded components.

  • Excellent stainless-steel machinability
  • Good chip breaking during production
  • Supports clean threads and fine finishes
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

SUS304 Stainless Steel

Used for sleeves, connectors, fasteners, and corrosion-resistant precision components.

  • Good corrosion resistance
  • Strong and widely available
  • Suitable for turned and cross-machined features
  • Machining Difficulty: Medium

  • Lead Time: 4–5 days

SUS316L Stainless Steel

SUS416 Stainless Steel

Used for Swiss-turned shafts, threaded parts, valve components, and mechanical fasteners.

  • Improved machinability and chip control
  • Suitable for repeat batch production
  • Can be hardened after machining
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

SUS420 Stainless Steel

Used for wear-resistant pins, shafts, instrument parts, and valve components.

  • Good hardness after heat treatment
  • Improved wear resistance
  • Suitable for durable mechanical parts
  • Machining Difficulty: Medium

  • Lead Time: 4–6 days

SUS630 / 17-4PH Stainless Steel

Used for aerospace fasteners, valve stems, medical components, and high-strength shafts.

  • High strength and corrosion resistance
  • Suitable for heat-treated applications
  • Good performance under mechanical loads
  • Machining Difficulty: High

  • Lead Time: 5–7 days

  • SUS303

  • SUS304

  • SUS316L

  • SUS416

  • SUS420

  • SUS630

C36000 Brass

Used for fittings, inserts, terminals, connectors, and high-volume threaded components.

  • Excellent machinability
  • Short chips and fast cycle times
  • Produces clean threads and smooth finishes
  • Machining Difficulty: Low

  • Lead Time: 3 days

C37700 Brass

Used for valve parts, plumbing fittings, couplings, and fluid-control connectors.

  • Good strength and corrosion resistance
  • Suitable for threaded components
  • Reliable for repeat production
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

C11000 Copper

Used for conductive pins, terminals, electrical contacts, and heat-transfer components.

  • Excellent electrical conductivity
  • High thermal conductivity
  • Suitable for precision conductive parts
  • Machining Difficulty: Medium

  • Lead Time: 4 days

C14500 Tellurium Copper

Used for Swiss-turned connector pins, electrodes, terminals, and electrical contacts.

  • Better machinability than pure copper
  • Maintains high conductivity
  • Suitable for high-volume Swiss turning
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

C51000 Phosphor Bronze

Used for bushings, sleeves, contacts, spring components, and wear-resistant parts.

  • Good fatigue and wear resistance
  • Strong spring properties
  • Suitable for sliding applications
  • Machining Difficulty: Medium

  • Lead Time: 4–5 days

C54400 Phosphor Bronze

Used for bearings, threaded fittings, valve parts, bushings, and mechanical components.

  • Good machinability and chip control
  • Strong wear resistance
  • Suitable for repeat precision production
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

  • C36000

  • C37700

  • C11000

  • C14500

  • C51000

  • C54400

POM-C

Used for Swiss-turned bushings, gears, rollers, spacers, and precision plastic components.

  • Good dimensional stability
  • Low moisture absorption
  • Low friction and easy machinability
  • Machining Difficulty: Low

  • Lead Time: 3 days

POM-H

Used for small gears, bearings, sleeves, guides, and wear-resistant mechanical parts.

  • Higher stiffness and strength
  • Good fatigue resistance
  • Suitable for tight turned features
  • Machining Difficulty: Low

  • Lead Time: 3 days

PEEK

Used for medical, aerospace, semiconductor, and high-temperature fluid components.

  • Excellent heat resistance
  • Strong chemical resistance
  • High dimensional stability
  • Machining Difficulty: High

  • Lead Time: 5–7 days

PA6

Used for rollers, guides, bushings, spacers, and lightweight mechanical components.

  • Good toughness and fatigue resistance
  • Strong wear performance
  • Cost-effective for functional parts
  • Machining Difficulty: Low

  • Lead Time: 3–4 days

PA66

Used for insulators, rollers, fasteners, bushings, and heat-resistant components.

  • Higher stiffness than PA6
  • Good heat and wear resistance
  • Suitable for durable mechanical parts
  • Machining Difficulty: Medium

  • Lead Time: 4 days

PTFE

Used for seals, valve seats, insulating sleeves, bushings, and fluid-control parts.

  • Extremely low friction
  • Excellent chemical resistance
  • Strong electrical insulation
  • Machining Difficulty: Medium

  • Lead Time: 4–5 days

  • POM-C

  • POM-H

  • PEEK

  • PA6

  • PA66

  • PTFE

Surface Finishing Options for CNC Swiss Turned Parts

We customize surface finishes by part function, assembly fit and application scenarios instead of generic uniform treatments. Our full in-house finishing lines and precision inspection lab reliably deliver specialized high-gloss, wear-resistant or anti-corrosion finishes as required.

Customized Processes

Tailor treatments for all materials against wear, corrosion and appearance needs.

Accurate Surface Control

Adjust roughness & coating thickness to fit assembly and working conditions.

In-house One-stop Service

Full finishing equipment eliminates outsourcing delays and quality risks.

Strict QC Inspection

2D/3D testing guarantees stable quality for prototypes & small batches.

Surface Treatment Process Applicable Materials Surface Roughness Ra (μm) Key Features Typical Applications Price Level
Mirror Polishing Aluminum, Stainless Steel, Copper, Brass 0.006–0.1 Ultra-smooth mirror gloss surface, completely removes tool lines, excellent corrosion resistance Precision shafts, medical fittings, optical components, cosmetic hardware High
Precision Grinding All metal alloys 0.1–0.8 Micro cutting processing, dimensional tolerance up to IT5, uniform consistent surface finish Aerospace miniature shafts, automotive valve cores, precision fasteners Medium-High
Sandblasting Aluminum, Carbon Steel, Copper, Engineering Plastics 1.6–6.3 Uniform matte texture, conceals machining traces, improves adhesion of subsequent coatings Consumer electronic components, automotive connectors, equipment housings Medium
Linear Brushed Finish Aluminum, Stainless Steel, Copper Alloy 0.4–1.6 Distinct linear metallic texture, fingerprint-resistant performance 3C structural shafts, home appliance decorative parts, equipment trim pieces Medium
Clear Anodizing 6061 / 6063 / 6082 Aluminum Alloy 0.4–1.6 Thin wear-resistant oxide film, maintains original metallic luster, electrical insulation & anti-corrosion New energy motor shafts, sensor pins, instrumentation fittings Medium
Colored Hard Anodizing Aluminum Alloy Series 0.8–3.2 Thick 20–80μm hard oxide layer, customizable multiple colors, outstanding abrasion resistance Heat sink shafts, automated moving components, mechanical precision pins Medium-High
Micro-Arc Oxidation (MAO) Aluminum, Magnesium Alloy 0.8–3.2 Hard ceramic protective coating, top-tier wear and corrosion resistance for harsh environments Automotive hydraulic shafts, medical precision parts, outdoor machinery components High
Electroless Nickel Plating Carbon Steel, Aluminum, Copper, Iron Alloys 0.1–0.8 Even plating coverage on tiny complex features, anti-rust and wear-resistant Miniature threaded pins, micro gear shafts, hydraulic valve spools Medium-High
Bright Chrome Plating Carbon Steel, Brass, Copper 0.05–0.2 Mirror bright metallic surface, high surface hardness, long anti-corrosion lifespan Decorative precision shafts, optical connectors, control valve parts High
Stainless Steel Passivation 304 / 316L Stainless Steel 0.2–1.6 Eliminates free iron impurities, boosts rust resistance, zero dimensional variation Medical equipment shafts, food-grade fluid fittings, sanitary hardware Low
Black Oxide Coating Carbon Steel, Alloy Steel 1.6–6.3 Ultra-thin protective film, no dimensional shift, low processing cost Standard transmission shafts, miniature mechanical fasteners Low
Electrophoretic Coating Aluminum, Carbon Steel 1.6–3.2 Uniform thin paint film, rich matte color options, reliable anti-corrosion performance Automotive small structural shafts, electronic terminal connectors Medium
Laser Etching & Marking All Metals & Engineering Plastics No roughness change Permanent indelible logos, texts and scales, no material surface damage Serial number marking, brand logos, parameter scales on shaft workpieces Low (Secondary Auxiliary Process)
Silk Screen Printing Polished / Anodized Metal & Plastic Surfaces Depends on base workpiece finish Custom colored texts and graphic patterns for identification Consumer electronic appearance shafts, instrument control parts Medium (Secondary Auxiliary Process)

Supplementary Notes

  1. CNC Swiss lathes are specialized for slender miniature shaft workpieces with complex stepped and threaded structures. Passivation and electroless nickel plating are ideal processes to fully cover intricate inner and outer tiny features.
  2. Original surface roughness of raw Swiss turned workpieces without secondary finishing ranges from Ra1.6μm to Ra3.2μm.
  3. Cost hierarchy: Low < Medium < Medium-High < High

    Black Oxide / Passivation < Sandblasting / Brushing / Standard Anodizing < Electroless Nickel / Precision Grinding < Mirror Polishing / Micro-Arc Oxidation / Bright Chrome Plating

When Swiss CNC Turning Is the Right Manufacturing Choice

Swiss lathe machining excels when ultra-precise slender shaft parts, micro features and tight concentricity outweigh mass production unit costs.
At TOP Prototype, Swiss turning is widely adopted to produce miniature precision components for pre-production verification and small-batch formal delivery.
Swiss Turning Is a Strong Fit When You Need:
  • Tiny slender shafts, pins and stepped micro parts
  • Ultra-tight concentricity & micron-level dimensional tolerances
  • Complex features: fine threads, deep small bores, tiny grooves
  • Low/medium batches of metal precision hardware (aluminum, steel, stainless steel, brass)

Why Engineers Choose Swiss Lathe Machining:

01

Machining thin small parts without bending

02

Micron tolerance & stable concentricity

03

One-step complex micro threads & holes

04

Production-grade parts with low tooling cost

Ready to Validate Your Swiss Turning Design?

Send us your CAD drawings to get manufacturability analysis, tolerance advice and quick quotes prior to production.

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    Professional manufacturability assessment

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    Custom tolerance optimization

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    Early production risk elimination

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    Fast competitive quotation support

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    Why Choose TOP Prototype for Swiss Lathe Processing?

    TOP Prototype Resources and FAQs

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    Faqs

    • What types of design files do you accept for quotation and manufacturing?

    • Is there a minimum order quantity (MOQ) for Swiss turning and CNC machining parts?

    • What raw materials can be processed with your Swiss lathe equipment?

    • Can you provide customized surface finishing solutions for machined parts?

    • What quality inspection equipment and systems do you use to guarantee dimensional precision?

    • How do you protect the confidentiality of my product drawings and project information?