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Custom Parts Manufacturing Solutions

Automation Components Manufacturing Service

Neway provides Automation Components Manufacturing, offering CNC Machining, 3D Printing, Vacuum Casting, Die Casting, and Injection Molding. We produce high-precision, reliable components tailored for efficient and advanced automation systems.

Automation Parts Machining

Automation parts machining involves using advanced CNC processes such as milling, turning, drilling, boring, grinding, and EDM to create high-precision components for automation systems. These parts are crucial for robotics, assembly lines, and other automated equipment, ensuring optimal performance, durability, and accuracy. Multi-axis and precision machining techniques are commonly used to achieve complex, tight-tolerance designs.
Automation Parts Machining

Machining Process

Advantages

CNC Machining

High precision, automation, and complex designs.

CNC Milling

Ideal for complex shapes, high precision, versatile with multiple cutting tools.

CNC Turning

Excellent for cylindrical parts, high-speed, smooth finishes.

CNC Drilling

Fast, accurate hole-making, consistent depth, diameter, and location.

CNC Boring

High precision hole enlargement, improved surface finish, and tight tolerances.

CNC Grinding

Achieves smooth surface finishes, tight tolerances, and high material removal rates.

Multi-Axis Machining

Allows complex geometries, enhanced accuracy, reduced setup times, and fewer errors.

Precision Machining

Superior accuracy, high-quality finish, tight tolerances for demanding applications.

Electrical Discharge Machining

Precise, intricate cuts, excellent for hard materials and complex geometries.

Automation Material Selection

Automation parts require materials that ensure high precision, durability, and resistance to wear. Superalloys, titanium, aluminum, copper, brass, bronze, carbon steel, stainless steel, plastic, and ceramics are commonly used for components like actuators, sensors, gears, housings, and wiring in automated systems.
Automation Material Selection

Material Selection

Applications

Superalloy

Actuators, gears, high-temperature seals, precision components

Titanium

Lightweight structural parts, actuators, robotic arms, fasteners

Aluminum

Robot frames, structural components, sensors, housings

Copper

Electrical wiring, motors, connectors, power distribution units

Brass

Bearings, bushings, gears, precision fasteners

Bronze

Bearings, gears, actuators, bushings

Carbon Steel

Structural supports, frames, mechanical linkages, brackets

Stainless Steel

Actuators, robotic arms, sensors, precision fasteners

Plastic

Non-structural components, enclosures, insulation, housings

Ceramic

Insulating materials, friction components, sensors, wear parts

Common Automation Parts Surface Treatment

Common automation parts undergo various surface treatments to enhance performance and durability. These include processes like anodizing, PVD, electroplating, and powder coating, which improve corrosion resistance, hardness, and appearance. Other treatments like passivation, sandblasting, and heat treatment provide further protection and precision. These treatments ensure automation components meet stringent quality standards for reliability and longevity.
Thermal Coating
Thermal Coating
As Machined
As Machined
Painting
Painting
PVD (Physical Vapor Deposition)
PVD (Physical Vapor Deposition)
Sandblasting
Sandblasting
Electroplating
Electroplating
Polishing
Polishing
Anodizing
Anodizing
Powder Coating
Powder Coating
Electropolishing
Electropolishing
Passivation
Passivation
Brushing
Brushing
Black Oxide
Black Oxide
Heat Treatment
Heat Treatment
Thermal Barrier Coating (TBC)
Thermal Barrier Coating (TBC)
Tumbling
Tumbling
Alodine
Alodine
Chrome Plating
Chrome Plating
Phosphating
Phosphating
Nitriding
Nitriding
Galvanizing
Galvanizing
UV Coating
UV Coating
Lacquer Coating
Lacquer Coating
Teflon Coating
Teflon Coating

CNC Machining for Automation Equipment

Automation systems rely on CNC machining for components such as gears, housings, and mounts, providing the precision and durability necessary for seamless integration and continuous operations in industrial environments.
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Guide to Automation Components Design and Manufacturing

Precision automation component design emphasizes tolerancing, modularity, kinematic alignment, fatigue resistance, and electromechanical compatibility. These guidelines ensure optimal reliability, serviceability, and integration within industrial automation systems operating under dynamic, high-throughput conditions.

Design Focus

Professional Guidelines

Dimensional Tolerancing

Apply tolerance stack-up analysis. Use ISO 286 IT7–IT9 fits for shafts, bushings, and guide profiles in motion-critical automation parts.


Material Selection

Choose fatigue-resistant alloys (e.g., 42CrMo4, 7075-T6) or tribologically optimized polymers (e.g., PEEK, PTFE) based on load cycles, temperature, and sliding interfaces.


Modular Assembly Interfaces

Standardize hole patterns (DIN 55101, ISO 9409-1) and use dowel-pinned datum references to enable quick integration with linear actuators, sensors, and robotic end-effectors.


Electromechanical Integration

Provide embedded slots or M12 cutouts for sensor mounting and cable conduits. Ensure EMC shielding continuity at electrical interface zones for signal integrity.


Dynamic Load Design

Validate structure under cyclic loading via FEA. Maintain safety factors ≥1.5 for 10⁶+ cycle life. Optimize rib geometry for stiffness-to-weight ratio in reciprocating mechanisms.


Accessibility and Maintenance

Design components for single-direction service access. Include slotted fasteners, clear tool paths, and visual ID markings. Modularize assemblies for minimal machine downtime during part replacement.


Thermal and Structural Stability

Use matched thermal expansion coefficients (CTE < 15 μm/m·K) between interfacing parts. Isolate heat sources with insulating sleeves or slots to prevent dimensional drift in linear guide systems.


Noise and Vibration Management

Introduce elastomeric bushings or tuned mass dampers to suppress resonance. Conduct modal analysis for vibration-sensitive components mounted on servo stages or precision assemblies.


Surface Engineering

Apply appropriate treatments—anodizing for corrosion resistance, hard chrome for wear reduction, or dry film lubricants for maintenance-free bearing surfaces under intermittent motion.


Design for Assembly (DFA)

Limit fastener types and assembly tools. Incorporate alignment features and tolerance-compensating bushings for rapid fitment on automated production lines or robotic workcells.

Frequently Asked Questions

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