Semiconductor

🌀 Semiconductor Vacuum Chamber Structural Hardware

Precision-machined brackets, alignment dowel blocks, heavy-duty hinges, gas box manifold plates, cable guide links, turbo pump isolation saddles, heat shield spacers, 3D-printed cable routing pods

3 Components 1 Materials 3 Processes 3 Standards

What is Semiconductor Vacuum Chamber Structural Hardware?

🌀 Semiconductor Vacuum Chamber Structural Hardware represents a complete system of precision titanium components engineered for Semiconductor applications. Precision-machined brackets, alignment dowel blocks, heavy-duty hinges, gas box manifold plates, cable guide links, turbo pump isolation saddles, heat shield spacers, 3D-printed cable routing pods The system integrates 3 distinct component types manufactured through 3 specialized processes.

Key manufacturing processes for this system include Cleanroom CNC Class 100 for chamber seal geometry, Electropolish Ra <0.25um at 200W fiber laser, UHP DI water cascade rinse at 200W fiber laser, Particle count MIL-STD-1246 at 200W fiber laser, Electropolish Ra <0.25um for net-shape tolerance, each selected and qualified to meet component-specific requirements.

Engineering & Design Principles

Material: Grade 5 (Ti-6Al-4V) for structural brackets, hinges, and saddles requiring high strength and low thermal conductivity. Grade 2 (CP-Ti) for non-structural plates and cable guides requiring zero outgass

Form: Bar/plate stock for structural components via CNC machining. SLM 3D printing for complex cable-routing pods and irregular bracket geometries to minimize material waste and lead time.

Standards & Material Specifications

Standards: ASTM B348 Grade 5 / ASTM B265 Grade 2, electropolished, Class 100 UCN cleaned, MTC traceable to melt source

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Engineering Solution Blueprint

Semiconductor Process Chamber Components

Semiconductor

1 Part Feature Analysis

Large diameter rings, liner shields, focus rings, clamp rings, gas distribution plates — thin-wall, high-purity

  • ⚠️ Plasma erosion
  • ⚠️ Particle generation
  • ⚠️ Metal contamination of wafers
  • ⚠️ Thermal uniformity
  • ⚠️ Cost of frequent replacement

2 Material Selection Rationale

Grade 2 CP-Ti — Industrial pure Ti, general corrosion resistance

Grade 2 (CP-Ti) is preferred for chamber components due to its low sputter yield and minimal particle generation in plasma environments. Grade 5 for structural rings.

3 Form Selection Rationale

Plate / Sheet — for welding, machined housings

Plate stock for large diameter rings and shields. Tube for gas distribution lines. Bar for fasteners.

4 Manufacturing Process & Services

Core Processes:

CNC turning/boring of ringsPrecision drilling of gas holesSurface treatment (anodizing)Ultra-sonic cleaning

Toll Processing Services:

Class 10 cleanroom packagingParticle count testingSurface roughness measurementHelium leak testing

Process Pitfalls:

  • ⚠️ Gas distribution hole diameter tolerance +-0.01mm required for uniform plasma
  • ⚠️ All surfaces must be electropolished to Ra<0.4um to minimize particle generation

5 Procurement Specifications

ASTM B265 Grade 2, double-melted (VAR), electropolished, Class 10 cleanroom packaged, particle count certified

Manufacturing Process Flow

1
CNC milling/turning of brackets and alignment blocks

CNC turning of titanium on multi-axis lathes produces cylindrical components with precision diameters and surface finishes. Live tooling enables milli

2
SLM 3D printing of complex pod geometries

Selective Laser Melting (SLM/DMLS) builds titanium components layer-by-layer from metal powder using a fiber laser. Internal lattice structures, confo

3
Thread rolling of all fasteners

Thread rolling cold-forms threads by displacing material between two reciprocating or rotary dies, rather than cutting it away. Compressive residual s

Components in This System

Component Material
Titanium Centering Ring (KF/ISO) Grade 5 Ti-6Al-4V
Titanium Conflat Knife-Edge Ring Grade 5 Ti-6Al-4V
Titanium Segmented Clamping Ring Grade 5 Ti-6Al-4V

Frequently Asked Questions

What titanium grades are used in Semiconductor Vacuum Chamber Structural Hardware systems?
Semiconductor Vacuum Chamber Structural Hardware components are manufactured from Grade 5 Ti-6Al-4V. The specific grade is selected based on mechanical property requirements, corrosion resistance needs, and Semiconductor industry regulations.
What manufacturing processes are used for Semiconductor Vacuum Chamber Structural Hardware?
The Semiconductor Vacuum Chamber Structural Hardware system components are produced using Cleanroom CNC Class 100 for chamber seal geometry, Electropolish Ra <0.25um at 200W fiber laser, UHP DI water cascade rinse at 200W fiber laser, Particle count MIL-STD-1246 at 200W fiber laser, Electropolish Ra <0.25um for net-shape tolerance, UHP DI water cascade rinse for net-shape tolerance. Each process is selected and qualified to meet the specific dimensional, metallurgical, and surface requirements of each component within the system.
What quality standards apply to Semiconductor Vacuum Chamber Structural Hardware components?
Semiconductor Vacuum Chamber Structural Hardware components are manufactured to SEMI F20 (kfiso centering applied), SEMI F20 (conflat flange applied), SEMI F20 (segmented circular applied) and other applicable specifications. Full material traceability, dimensional inspection reports, and certificates of conformance are provided with each shipment.
What industries use Semiconductor Vacuum Chamber Structural Hardware?
Semiconductor Vacuum Chamber Structural Hardware systems are deployed in Semiconductor applications. Each industry has specific regulatory and performance requirements that drive material selection and process qualification.
Can you provide DFM feedback for Semiconductor Vacuum Chamber Structural Hardware designs?
Yes. Our engineering team provides free Design for Manufacturability (DFM) analysis for Semiconductor Vacuum Chamber Structural Hardware projects. Upload your CAD file (STEP, DXF, or DWG format) and our team will review your design within 24 hours.

Engineering Trends

  • Process: CNC milling/turning of brackets and alignment blocks
  • Process: SLM 3D printing of complex pod geometries
  • Process: Thread rolling of all fasteners

Related Manufacturing Capabilities

These specialized processes support Semiconductor Vacuum Chamber Structural Hardware component manufacturing.

About Boze Titanium Manufacturing Center

One Metal. One Focus. Infinite Precision.

Founded in 2011 in Baoji's Titanium Valley, BOZE Metal is dedicated exclusively to titanium — from raw material to precision engineering. AS9100D, ISO 13485 & ISO 9001 certified with 500+ clients across Aerospace, Medical & Motorsport industries, we deliver end-to-end precision titanium CNC machining with full material traceability from source to component.

Boze CNC Ti is the dedicated titanium manufacturing center of Baoji Boze Metal Products Co., Ltd.

AS9100D ISO 13485 ISO 9001 500+ Clients 15+ Years OEM/ODM