Brand Name: | crida-model |
Model Number: | OEM |
MOQ: | 1 |
Price: | Negotiable |
Payment Terms: | T/T,L/C,D/A,D/P,Western Union,MoneyGram |
Supply Ability: | 1000 pieces per month |
Custom CNC Lathe Machining Milling Parts Stainless CNC Turning Milling Steel Brass Aluminum
Highlight: Precision Stainless Steel Machining Parts, OEM CNC Turning Milling Parts, Aluminum CNC Turn Mill Parts
Advantage
CNC Turning & Milling Parts Advantages:
High-Efficiency Precision Production: Delivers high production efficiency while maintaining precision and quality standards.
Transparent Progress Reporting: Provides detailed production schedules with weekly progress reports including digital photos/videos of machining processes.
Certified Scalable Expertise: Features an ISO9001:2015-certified engineering team supporting projects from one-off prototypes to volume production.
Proven Manufacturing Experience: Leverages extensive production expertise.
Principle
5-Axis CNC Machining's Role in Stainless Steel Production
5-axis CNC machining enables simultaneous movement along five axes: linear (X, Y, Z) and rotational (A, B). This allows complex tool/workpiece manipulation from virtually any angle, significantly enhancing stainless steel part manufacturing through:
Enhanced Precision
• Overcomes 3-axis limitations (fixed X/Y/Z directions)
• Machines complex angles/curves without repositioning
• Minimizes human error and misalignment risks
• Achieves micron-level tolerances critical for stainless steel
Design Flexibility
• Creates intricate geometries impossible with a 3-axis
• Handles undercuts, curved surfaces, and multi-directional features
• Fabricates medical/aerospace components in single setups
• Enables sophisticated shapes/internal cavities without precision loss
Operational Efficiency
• Eliminates multi-step repositioning
• Reduces fixture changes/tooling adjustments
• Cuts setup time and labor costs
• Maintains precision under tight deadlines
Superior Surface Finish
• Maintains consistent tool angles for smoother cuts
• Achieves high-quality finishes for aerospace/medical applications
• Overcomes stainless steel's machining challenges
• Meets/exceeds industry surface standards
Tool Longevity
• Optimizes tool positioning to distribute wear
• Counters stainless steel's hardness-induced tool degradation
• Reduces changeovers and production costs
• Ensures consistent output quality
Technical Parameters
Property | Description |
Package: | Carton, Wooden Case, Etc. |
Weight: | Lightweight |
Our Service: | Customize Product, 24-hour Online |
Drawing Format: | PDF/DWG/IGS/STP/ Etc, STP, STEP, LGS, XT, AutoCAD(DXF, DWG), PDF, or Samples |
Quality Assurance | ISO9001:2015, SGS, RoHS, TUV, 100% Inspection Before Shipment |
Payment Terms: | Trade Assurance, TT/PayPal/West Union, 30% Deposit |
Standard: | ISO |
CERTIFICATE | ISO9001:2015,AS9100D,ISO13485:2016,ISO45001:2018,IATF16949:2016,ISO14001:2015,ROSH,CE etc. |
Control Software: | LaserCut/laser Work |
Shape: | Round, Square, Hexagonal, Customized |
Delivery: | DHL, UPS, FedEx, TNT, Etc. |
Colors Available: | Black Or Other Color |
Material: | Metals, Titanium, Copper, ABS, Aluminum, PVC, Brass, etc. |
Importance
Reasonable Temperature Control in Precision Hardware Processing
Precision parts processing adheres to stringent industry standards involving varied operations (e.g., cutting in/out). Dimensional and accuracy requirements differ per product, though precision machining typically demands tolerances within 1μm (0.001mm). Significant dimensional deviations yield non-conforming products requiring reprocessing – a time-intensive procedure risking material scrap, cost escalation, and part failure. These factors necessitate rigorous process controls.
Two primary machining forces impact precision:
Extrusion force
Rubbing force
Mitigation strategies include:
Equipment Preparation: Strict pre-machining inspections with immediate fixture adjustments to reduce force transmission
Friction Management: Routine equipment polishing minimizes friction from part-tool contact (e.g., machine tool interfaces), as friction intensifies during extended operation
Temperature Control Protocol:
Precision equipment exhibits temperature sensitivity – excessive heat or cold disrupts operational reliability. Implementation requires:
Coolant Application: Apply cold-water cooling when operational speeds cause overheating
Case Example: High-speed grinding generates part-deforming heat during polishing, necessitating immediate cooling intervention
Optimal temperature regulation remains critical throughout machining operations.
Types
Aluminum Polishing Techniques in CNC Processing
Different CNC polishing methods achieve distinct surface finishes while maintaining the core objective of smooth, high-quality aluminum surfaces:
Mechanical Polishing
Method: High-speed rotation of abrasive pads, belts, or wheels against aluminum surfaces.
Applications: Most common technique for smooth/shiny finishes in decorative pieces and low-friction functional components.
Electrolytic Polishing (Electropolishing)
Method: Immersion in electrolytic solution under electric current.
Outcome: Removes surface irregularities for smooth/bright finishes.
Applications: Critical for medical devices requiring hygienic, ultra-smooth surfaces.
Vibratory Polishing
Method: Vibration-induced movement with abrasive media in containers.
Outcome: Constant rubbing action delivers uniform surface finishes.
Applications: Ideal for small parts and mass production with rapid processing times.
Buffing
Method: Final-stage polishing using compound-impregnated soft cotton wheels.
Outcome: Creates high-gloss finishes.
Applications: Aesthetically critical components (automotive trim, kitchen appliances, decorative elements).
FAQ