Advanced Metal Processing Parts for Optimal Equipment Functionality

Product Description

Product Description

Advantages of metal parts

Excellent thermal conductivity – Efficiently dissipates heat, ideal for high-temperature applications.
Good electrical conductivity – Suitable for electrical and electronic components.
Wide material selection – Various metals and alloys available to match specific requirements (e.g., aluminum for lightweight, steel for strength).
Machinability and formability – Can be shaped, cut, and fabricated into complex designs with high precision.
Recyclability – Environmentally friendly, as metals can be reused without losing quality.
Corrosion resistance (with proper treatment/alloys) – Suitable for harsh or outdoor environments.
Consistency and reliability – Offers stable mechanical properties and dimensional accuracy in mass production.

Common application areas 

 - Automotive industry – Engine components, chassis parts, brackets, fasteners.
- Aerospace and aviation – Aircraft frames, engine parts, landing gear components.
- Electronics – Heat sinks, connectors, shielding cases.
- Construction and infrastructure – Structural beams, supports, fittings.
- Machinery and equipment – Gearboxes, shafts, bearings, housings.
- Medical devices – Surgical instruments, implantable components, diagnostic equipment parts.
- Consumer goods – Appliance parts, tools, cookware, decorative elements.
- Energy sector – Turbine parts, pipelines, solar panel frames, battery casings.

Specification

Attribute	Parameter	Unit	Description
Dimensions	100 × 50 × 5	mm	Length × Width × Height of the metal part
Weight	120	g	Net weight of the part
Tolerance	±0.1	mm	Allowable deviation from nominal dimensions
Hardness	95	HB	Brinell hardness measurement
Thickness	5	mm	Wall or plate thickness

Certifications

Company Profile

FAQ

1. What are the most common metal materials used for manufacturing precision metal parts?

Common materials include stainless steel (corrosion-resistant, high strength), aluminum alloy (lightweight, good thermal conductivity), carbon steel (cost-effective, high hardness), titanium alloy (biocompatible, excellent fatigue resistance), and brass (good machinability, electrical conductivity). Stainless steel excels in harsh environments, while aluminum is ideal for weight-sensitive applications; titanium is often used in medical and aerospace fields due to its biocompatibility and strength-to-weight ratio.

2.How do manufacturing processes differ?

CNC machining offers high precision (tolerances down to ±0.001mm) for complex geometries but has higher per-unit costs for low volumes. Stamping is cost-effective for high-volume, simple-shaped parts (e.g., washers) but requires expensive tooling upfront. Casting is suitable for large, intricate parts (e.g., engine blocks) but may have lower surface finish. 3D printing enables rapid prototyping and custom designs but has limitations in material selection and production speed for mass manufacturing.

3.What tolerances are typical?

ThiStandard: ±0.01–0.1 mm; tight tolerance: ±0.001–0.005 mm for critical uses.

4.How to prevent corrosion?

ThUse coatings (galvanizing, anodizing), corrosionresistant alloys, or surface treatments like passivation.