Our 3-Axis CNC Machining Services

Elevate your part production with our 3-Achse CNC -Bearbeitungsdienste—the reliable, cost-effective solution for precision components across industries. Nutzung linear axes (X, Y, Z) for seamless 3D machining, we deliver consistent results for metals (Edelstahl, Aluminium), Kunststoff, and composites—from automotive brackets to medical device prototypes. With efficient setup, versatile tooling, und enge Toleranzen, we turn your designs into high-quality parts fast, without compromising on performance.​

3 axis cnc machining
3 axis cnc machining

What Is 3-Axis CNC Machining?

3-Achse CNC -Bearbeitung is a foundational manufacturing Technologie that uses three orthogonal linear axes (X, Y, Z) to shape raw materials into 3D parts. Unlike manual machining or 2-axis systems (limited to flat surfaces), it relies on Computer Numerical Control (CNC) to automate tool movement along three dimensions:

  • X-Axis: Left/right horizontal movement (across the machine bed).
  • Y-Axis: Forward/backward horizontal movement (perpendicular to the X-axis).
  • Z-Axis: Up/down vertical movement (controls the cutting tool’s depth into the material).

Der Prozessübersicht is intuitive: A CNC system interprets a digital design (CAD -Datei) to generate instructions for the machine. The cutting tool (Z.B., Mühle, bohren) moves along the X/Y/Z axes to remove material from the workpiece, creating features like holes, Slots, or curved surfaces.​

To explain “Wie es funktioniert” simply: Imagine a high-precision drill that can move left/right, forward/backward, and up/down—all guided by a computer. Zum Beispiel, when making a plastic electronics enclosure, the machine first uses the X/Y axes to position the tool, then the Z-axis to cut the enclosure’s outline, and finally repeats the process to add holes for ports. This simplicity, paired with automation, makes 3-Achse CNC -Bearbeitung the workhorse of modern manufacturing.

Our 3-Axis CNC Machining Capabilities

We offer robust machining capabilities tailored to 3-axis systems, with a focus on precision, Vielseitigkeit, Und tooling options to meet diverse project needs. Below is a detailed breakdown of our key capacities:

FähigkeitSpezifikation
Linear Axes RangeX-Axis: Up to 1500mm- Y-Axis: Up to 800mm- Z-Axis: Up to 600mm​
Maximale Teilgröße1500mm × 800 mm × 600 mm (L×W×H); Maximum weight: 300kg​
Materialstärke– Metalle: Up to 100mm (Edelstahl), 150mm (Aluminium), 80mm (Titan), 120mm (Messing)- Non-Metals: Up to 200mm (Kunststoff), 180mm (Verbundwerkstoffe), 150mm (Holz), 100mm (Acryl)
PräzisionsniveausPositioning accuracy: ± 0,005 mm- Wiederholbarkeit: ± 0,003 mm
Benutzerdefinierte Bearbeitung– Merkmale: Löcher (minimum diameter: 0.5mm), Slots, Chamfers, 3D gekrümmte Flächen- Kompatibilität: CAD/CAM files (DXF, DWG, SCHRITT, Stl)- Volumen: Prototypen (1–50 Einheiten) to high-volume (50,000+ Einheiten/Monat)
Tolerance AchievementsTrifft ISO 2768-1 (feine Note); Kritische Teile (Z.B., Luft- und Raumfahrtklammern) achieve ±0.008mm​
Werkzeugoptionen– Ende Mills (Carbid, Hochgeschwindigkeitsstahl): For milling slots, Taschen, and 3D shapes- Übungen (twist, spade): For hole making- Reibahlen: For precision hole finishing- Einsätze (indexable): For high-volume turning/milling​

Whether you need to machine a single titanium medical bracket or 10,000 acrylic consumer goods parts, our 3-axis capabilities scale to match your project’s complexity and volume.

The 3-Axis CNC Machining Process (Schritt für Schritt)

Unser Schritt-für-Schritt-Prozess is optimized for efficiency and precision, guiding your project from design to finished part:

  1. Design and CAD Modeling: We start by reviewing your CAD model (or creating one from sketches). Our engineers optimize the design for 3-axis machining—e.g., ensuring 3D features are accessible via X/Y/Z movements (avoiding undercuts that require more axes). Für Prototypen, we offer free design feedback to improve manufacturability.​
  1. Cam -Programmierung: The CAD model is imported into CAM software (Mastercam, SolidWorks CAM), where we generate Werkzeugpfade—the exact routes the cutting tool will take along the X/Y/Z axes. We select tools based on material (Z.B., carbide end mills for titanium) and program speeds/feeds to balance precision and efficiency.​
  1. Setup and Calibration: The workpiece is secured to the machine bed using custom Fixture Design (Z.B., vises for small parts, clamps for large sheets). We calibrate the X/Y/Z axes using laser measuring tools to ensure alignment—critical for consistent results. Cutting tools are loaded into the machine’s tool changer, Und coolant systems are activated.​
  1. Bearbeitungsausführung: The CNC system runs the CAM program, automating tool movement along the X/Y/Z axes. Zum Beispiel, when milling an aluminum bracket, the tool first moves along X/Y to outline the part, then uses the Z-axis to cut pockets and drill holes. Our operators monitor the process in real time to adjust coolant flow or tool speeds if needed.​

Post-Machining Inspection: Nach der Bearbeitung, parts undergo rigorous checks. Wir verwenden CMMs (Koordinatenmessmaschinen) to verify dimensions against the CAD model, check surface finish with profilometers, and ensure tolerances are met. Parts requiring finishing move to Enttäuschung oder Polieren Schritte.

Materials We Work With

3-Achse CNC -Bearbeitung excels with a wide range of materials—from hard metals to lightweight non-metals. Below is a breakdown of our supported materials, ihre wichtigsten Eigenschaften, und ideale Verwendungen:

MaterialkategorieBeispieleSchlüsseleigenschaftenIdeale AnwendungenMachining Notes​
MetalleEdelstahlKorrosionsbeständig, starkMedizinische Instrumente, Luft- und RaumfahrtklammernVerwenden Sie Carbid -Werkzeuge; high-pressure coolant reduces heat​
AluminiumLeicht, Einfach zu maschineKfz -Teile, ElektronikgehäuseSchnelle Schnittgeschwindigkeiten; minimal tool wear​
TitanHohe Kraft-Gewicht, hitzebeständigOrthopedic screws, aircraft components​Langsame Geschwindigkeiten; sharp tools prevent wear​
MessingFormbar, leitfähigElektrische Anschlüsse, Dekorative TeileFast speeds; produces smooth finishes​
KupferHighly conductive, soft​Wärmetauscher, wiring terminals​Use coolant to avoid melting; sharp tools​
Non-MetalsKunststoff (ABS/Polycarbonate)Leicht, langlebigConsumer goods casings, PrototypenLow speeds to prevent warping​
VerbundwerkstoffeHohe Stärke, LeichtIndustrial panels, DrohnenrahmenSpecialized carbide tools to avoid fraying​
HolzNatural, kostengünstigCustom furniture, Dekorative StückeSharp tools; vacuum fixtures secure parts​
AcrylTransparent, starrFälle anzeigen, BeschilderungLow feed rates to prevent cracking​

We test all materials to optimize tool selection, Geschwindigkeiten, and coolant use—ensuring consistent quality across every part.

Oberflächenbehandlung & OPTIONEN

Nach der Bearbeitung, Wir bieten eine Reihe von einer Reihe von Oberflächenbehandlung Und finishing options to enhance part durability, Aussehen, und Funktionalität. Our most popular services include:

  • Schleifen: Schafft einen glatten, flat surface (ideal for parts requiring tight fitment, Z.B., Motorkomponenten).
  • Polieren: Delivers a glossy finish for visible parts (Z.B., stainless steel medical tools, acrylic signage).
  • Malerei: Applies a corrosion-resistant coating (matte/gloss) für Außenteile (Z.B., Kfz -Klammern).
  • Beschichtung: Options include powder coating (dick, kratzfest) for industrial parts and clear coating for acrylic.​
  • Anodisierung: Adds a protective oxide layer to aluminum (available in custom colors) for electronics enclosures.​
  • Wärmebehandlung: Strengthens metals (Z.B., titanium screws, Stahlwerkzeug) by heating/cooling—improving hardness.​
  • Enttäuschung: Removes sharp edges (für die Sicherheit kritisch, Z.B., Konsumgüter, Medizinprodukte).

The table below compares our finishing options by key factors:

Finishing Option​HaltbarkeitVorlaufzeitKosten (pro Teil, avg.)Am besten für
Grinding​Hoch1–2 Tage10–30Motorkomponenten, precision fits​
PolierenMittel2–3 Tage​15–45​Visible medical/acrylic parts​
GemäldeHoch2–4 Tage8–25Outdoor automotive/industrial parts​
Beschichtung (Pulver)Sehr hoch3–5 Tage20–50Heavy-duty industrial parts​
AnodisierungSehr hoch3–4 Tage​12–35​Aluminum electronics parts​
WärmebehandlungSehr hoch4–6 Tage​25–70​Titanium/steel high-stress parts​
EnttäuschungMittel1 day​​5–12​Safety-critical consumer/medical parts​

Toleranzen & Qualitätssicherung

Toleranzen Und accuracy standards are critical for 3-axis parts—especially those used in aerospace, medizinisch, or automotive applications. Unser Präzisionsniveaus Und Toleranzbereiche are tailored to your material and project, backed by rigorous Messtechniken Und quality control processes:

MaterialToleranzbereichAccuracy Standard Used​Messtechnik
Edelstahl±0.008–0.02mm​ISO 2768-1 (Bußgeld), Asme Y14.5CMM + Laserscanner
Aluminium±0.01–0.03mm​ISO 2768-1 (Bußgeld), AMS 2750​CMM + Digital Calipers​
Titan±0.009–0.025mm​ISO 2768-1 (Bußgeld), AMS 4928​CMM + Optischer Vergleicher
ABS Plastic​±0.02–0.04mm​ISO 2768-1 (Medium), ASTM D638​CMM + Mikrometer
Acryl±0.015–0.035mm​ISO 2768-1 (Medium), ASTM D792​CMM + Profilometer​

Unser quality control processes enthalten:

  • Vorabbau: Inspecting raw materials for defects (Z.B., cracks in titanium, unevenness in acrylic) and verifying dimensions.​
  • In-Prozess: Monitoring tool paths and axis alignment in real time via CNC software; periodic checks with calipers/micrometers.​
  • Nach dem Maschinieren: 100% inspection with CMMs (für kritische Teile) and surface finish testing; non-conforming parts are reworked or scrapped.​

Dokumentation: We provide a detailed quality report with every order, including measurement data, Inspektionsergebnisse, and compliance certificates (ISO 9001, FDA für medizinische Teile).

Key Advantages of 3-Axis CNC Machining

Compared to 4-axis/5-axis systems (more complex and costly) or manual machining (weniger präzise), 3-Achse CNC -Bearbeitung offers balanced benefits for most manufacturing needs:

  1. Hohe Präzision: With positioning accuracy of ±0.005mm and repeatability of ±0.003mm, it produces parts that fit seamlessly—critical for medical devices and aerospace components.​
  1. Efficient Machining: Simplified Werkzeugpfade (X/Y/Z only) reduce programming time, and fast cutting speeds (bis zu 10,000 RPM for aluminum) shorten production cycles.​
  1. Vielseitigkeit: It works with almost all common materials (Metalle, Kunststoff, Holz, Acryl) and handles diverse features (Löcher, Slots, 3D-Kurven)—making it a one-stop solution for prototyping and production.​
  1. Kosteneffizienz: Lower equipment and operational costs than multi-axis systems (no rotary axis maintenance); reduced labor costs due to automation (one operator can run 2–3 machines).
  1. Consistency and Repeatability: CNC programming ensures every part is identical—critical for high-volume orders (Z.B., 50,000 plastic consumer goods casings).
  1. Komplexe Geometrien: While it can’t handle undercuts, it excels at 3D shapes (Z.B., curved automotive dash parts, contoured medical handles) using optimized X/Y/Z tool paths.​

Reduzierte Setup -Zeit: Quick tool changes (via automated tool changers) and simple fixturing cut setup time by 30–40% compared to manual machining.

Branchenanwendungen

3-Achse CNC -Bearbeitung is the most widely used CNC technology—trusted across industries for its versatility and reliability. Hier sind die häufigsten Anwendungen:

IndustrieGemeinsame VerwendungenKey Benefit of 3-Axis Machining​
Luft- und RaumfahrtAluminum brackets, Edelstahlbefestigungen, composite panels​High precision for safety-critical parts​
AutomobilPlastic interior parts, aluminum suspension brackets, brass connectors​Cost-effectiveness for high-volume production​
MedizinprodukteTitanium screws, stainless steel surgical tools, plastic device casings​Precision and FDA-compliant processes​
Industrielle FertigungSteel machine frames, composite conveyor parts, copper heat exchangers​Versatility for diverse part types​
ElektronikAluminum heat sinks, plastic circuit board enclosures, brass terminals​Ability to machine small, precise features​
VerteidigungSteel weapon components, aluminum vehicle parts, plastic communication casings​Consistency for replacement parts​
Tool and Die MakingSteel die inserts, plastic mold cores, custom cutting tools​Efficiency for low-to-medium volume runs​
PrototypingRapid prototypes of new products (Kunststoff, Aluminium, Acryl)Fast setup and low cost for small batches​
KonsumgüterAcrylic display cases, wood furniture components, plastic toy parts​Cost-effectiveness for mass production​

Zum Beispiel, in the consumer goods industry, Wir produzieren 20,000 acrylic phone stands monthly with consistent dimensions—thanks to 3-axis machining’s repeatability. In medical devices, our titanium screws meet ±0.008mm tolerances, ensuring safe implantation.

Fortgeschrittene Fertigungstechniken

To maximize 3-axis performance, Wir verwenden hochmoderne Bearbeitungstechniken and optimized processes:

  • Mahlen: The most common 3-axis technique—uses rotating end mills to remove material. Wir bieten an:
  • Face Milling: Cuts flat surfaces (Z.B., aluminum panel tops) using large-diameter end mills.​
  • Pocket Milling: Creates recessed areas (Z.B., plastic enclosure cavities) by cutting along X/Y while lowering the Z-axis.​
  • Contour Milling: Shapes 3D curves (Z.B., automotive dash parts) by synchronizing X/Y/Z movements.​
  • Drehen: Für zylindrische Teile (Z.B., brass connectors), we combine 3-axis milling with turning—rotating the part while cutting its outer diameter via X/Z axes.​
  • Drilling/Boring: Uses twist drills (für Löcher) and boring tools (for precision hole finishing). We use peck drilling (Z-axis moves up/down to clear chips) für tiefe Löcher (up to 100mm in steel).
  • Werkzeugpfadoptimierung: CAM software helps us create efficient paths—e.g., “zig-zag milling” (fast for large surfaces) and “spiral milling” (smooth for 3D curves).
  • Schneidwerkzeuge: We select tools based on material:
  • Carbid -Werkzeuge: Für harte Metalle (Titan, Stahl) and composites—durable and heat-resistant.​
  • Hochgeschwindigkeitsstahl (HSS) Werkzeuge: Für Kunststoffe, Holz, and brass—sharp and cost-effective.​

Diamantbeschichtete Werkzeuge: For acrylic and wood—prevents chipping and ensures smooth finishes.​

  • Kühlmittelsysteme: We use two primary coolant types to optimize machining:
  • Flood Coolant: For high-volume metal machining (Z.B., Aluminiumhalterungen)—covers the tool and workpiece to reduce heat, extend tool life, and improve surface finish.​
  • Mist Coolant: For precision work on non-metals (Z.B., acrylic signage) and small parts (Z.B., medizinische Schrauben)—delivers a fine mist to avoid coolant residue while preventing overheating.​

Vorrichtungsdesign: Custom fixtures (3D-printed or machined) secure parts during machining—critical for consistency. Zum Beispiel, we use vacuum fixtures for thin acrylic sheets (verhindert Warping) and vice grips with soft jaws for brass parts (Vermeidet Kratzer).

Fallstudien: Erfolgsgeschichten

Unser 3-Achse CNC -Bearbeitungsdienste have helped clients across industries solve production challenges—from prototyping to high-volume manufacturing. Unten sind zwei Erfolgreiche Projekte showcasing our expertise in precision, Effizienz, und Vielseitigkeit:

Fallstudie 1: Automotive Plastic Interior Part Manufacturer​

  • Herausforderung: Der Kunde benötigte 50,000 ABS plastic dashboard brackets monthly for a new car model. Each bracket required 4 Löcher (0.5mm Durchmesser), a curved edge, and a tolerance of ±0.03mm. Their previous supplier used manual machining, which caused 12% of parts to fail (misaligned holes, uneven curves) and had a 4-week lead time—delaying the car’s launch.​
  • Lösung: Wir haben benutzt 3-Achse CNC -Bearbeitung with custom vacuum fixtures (to secure thin ABS sheets) and HSS end mills (optimized for plastics). We programmed Werkzeugpfade to cut the curved edge via synchronized X/Y/Z movements, then drill the holes in one setup. Mist coolant was used to prevent ABS warping, and our automated tool changer reduced setup time between batches. We also ran 8 Maschinen 24/7 to meet high-volume demand.​
  • Ergebnisse:
  • Die Defektrate fiel von gesunken 12% to 0.8%—only 400 parts failed per month (vs. 6,000 previously).
  • Lead time shortened from 4 Wochen zu 10 days—helping the client meet their car launch deadline.​
  • Production cost per bracket decreased by 40% (reduced labor from automation and fewer defects).
  • Client -Zeugnis: “3-axis CNC transformed our dashboard bracket production. The consistency and speed let us hit our launch date, and the cost savings were a huge bonus. We’ve expanded our order to include other interior parts!” — Mike T., Automotive Production Director.​
  • Before and After: Manual parts had jagged edges and misaligned holes; CNC parts featured smooth curves and perfectly spaced holes that fit seamlessly into dashboards.​

Fallstudie 2: Medical Device Company (Titanium Surgical Screws)

  • Herausforderung: Der Kunde benötigte 1,000 titanium surgical screws (4mm Durchmesser, 20MM Länge) for orthopedic procedures—each requiring a threaded body, a Phillips head, and a tolerance of ±0.008mm (critical for safe implantation). The client also needed FDA-compliant documentation and a 2-week lead time (to meet urgent hospital orders).
  • Lösung: Wir haben benutzt 3-Achse CNC -Bearbeitung with carbide drills and taps (for titanium’s hardness) and flood coolant (Um den Wärmeaufbau zu reduzieren). We programmed the X/Y axes to position the tool for the Phillips head, then used the Z-axis to cut the threads and drill the screw’s core. Unser quality control processes enthalten 100% CMM -Inspektion (verifying thread pitch and tolerance) and biocompatibility testing (pro FDA -Standards). We also prepared detailed documentation (Bearbeitungsparameter, Inspektionsberichte) for regulatory compliance.​
  • Ergebnisse:
  • 100% of screws met the ±0.008mm tolerance and FDA requirements—no rejections.​
  • Hospitals reported a 30% Verringerung der Chirurgiezeit (due to the screws’ precise fit).
  • Lead time was met (2 Wochen)—ensuring hospitals had enough supplies for urgent surgeries.​
  • Challenge Overcome: Manual machining couldn’t achieve the tight tolerance for threads; 3-axis CNC’s precision and repeatability solved this issue.​

Client -Zeugnis: “The titanium screws are consistently precise—surgeons love how they fit. The fast delivery and FDA documentation make them our go-to for surgical parts.” — Dr. Emily S., Orthopedic Device Manager.

Why Choose Our 3-Axis CNC Machining Services?

With countless 3-axis machining providers, here’s what sets us apart as a trusted partner for aerospace, Automobil, medizinisch, und Konsumgüterindustrien:

  • Expertise in 3-Axis Machining: Unser Team hat 18+ years of specialized experience in 3-axis systems—we master Werkzeugpfadoptimierung (for metals and non-metals) Und Fixture Design (custom solutions for unique parts). Our engineers are certified in CAM software (Mastercam, SolidWorks CAM) and can solve complex challenges (Z.B., machining thin acrylic without cracking, achieving tight tolerances for titanium screws) that other providers struggle with.​
  • Experience in Various Industries: Wir haben gedient 650+ Kunden über 9 industries—from small prototyping firms to Fortune 500 automotive companies. This cross-industry experience means we understand sector-specific needs: FAA compliance for aerospace brackets, ISO/TS 16949 Für Automobilteile, and FDA regulations for medical devices. We tailor our processes to meet these strict standards.​
  • High-Quality Equipment: We invest in state-of-the-art 3-axis machines—15 systems with high-speed spindles (bis zu 15,000 RPM for aluminum) and laser calibration tools (calibrated monthly to maintain ±0.005mm precision). All machines have automated tool changers (bis zu 20 Werkzeuge) to reduce setup time, and we use CNC software with real-time monitoring to track axis performance.​
  • Hervorragender Kundenservice: Unser Team ist verfügbar 24/7 to support your project—from design consultation to post-delivery follow-up. We offer free CAD/CAM reviews (helping you optimize designs for 3-axis machining, Z.B., avoiding undercuts) and free sample parts (so you can test quality before placing large orders). Für dringende Projekte (Z.B., medical device shortages), we assign a dedicated project manager to ensure on-time delivery.​
  • Schnelle Turnaround -Zeiten: Our optimized processes and equipment deliver industry-leading lead times:
  • Prototypen (1–50 Einheiten): 1–3 Tage
  • Low-volume orders (50–500 Einheiten): 3–7 Tage
  • High-volume orders (500+ Einheiten): 7–14 Tage

Für Rush -Bestellungen (Z.B., automotive production line emergencies), Wir können Teile in so wenig liefern wie 48 Std. (für kleine Chargen) by running machines 24/7.​

  • Kostengünstige Lösungen: We help you save money through:
  • Automatisierung: One operator runs 2–3 machines (reducing labor costs by 50% vs. manuelle Bearbeitung).
  • Werkzeugpfadoptimierung: Cuts cutting time by 20–30%, lowering electricity and tool wear costs.​
  • Volume discounts: 10% off orders over 1,000 units and 15% off orders over 10,000 units—ideal for automotive/consumer goods high-volume parts.​
  • Innovative Techniques: We stay ahead with cutting-edge methods:
  • AI-powered CAM programming: Automatically generates optimal Werkzeugpfade for complex 3D shapes (reducing programming time by 40%).
  • Sustainable machining: We recycle coolant and use energy-efficient machines (lowering your project’s carbon footprint).

Quick-change fixtures: Modular fixtures that reduce setup time for repeat orders (Z.B., monthly automotive part runs).

FAQ

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