Multi-Arc Ion Deposition Equipment

Multi-Arc Ion Deposition Equipment

Details
The Industrial Multi-Arc Ion Deposition System generates dense, high-adhesion thin films through high-current, low-voltage cathodic arc evaporation. Solid target materials (cathodes) are vaporized in a reactive gas atmosphere (such as N2, O2, or C2H2) to synthesize stoichiometric compound coatings. Engineered for high ionization rates exceeding 80%, this equipment yields exceptional film-to-substrate bonding strength suited for extreme mechanical load environments.
Category
Multi-Arc Ion Thin Film Equipment
 
Send Inquiry
Description
Technical Parameters

The Industrial Multi-Arc Ion Deposition System generates dense, high-adhesion thin films through high-current, low-voltage cathodic arc evaporation. Solid target materials (cathodes) are vaporized in a reactive gas atmosphere (such as N2, O2, or C2H2) to synthesize stoichiometric compound coatings. Engineered for high ionization rates exceeding 80%, this equipment yields exceptional film-to-substrate bonding strength suited for extreme mechanical load environments.

 

Technical Specifications

 

Parameter

Specification

Chamber Dimensions

Custom configurations from Phi 800 x 1000 mm to Phi 1500 x 2200 mm

Chamber Material

SUS304 / SUS316L Stainless Steel, double-wall water-cooled jacket

Ultimate Vacuum Pressure

<= 5.0 x 10^-4 Pa

Pump-Down Time

Atmosphere to 6.0 x 10^-3 Pa in <= 15 minutes (clean, empty chamber)

Arc Power Supply

DC and pulsed arc power units (0-200A adjustable, ripple <= 1%)

Bias Power Supply

High-frequency pulsed bias (-1000V to 0V adjustable)

Evaporation Sources

4 to 18 cathodic arc sources (filterable or standard magnetic steering)

Substrate Rotation

Planetary multi-axis rotation driven by magnetic fluid feedthrough

 

Key Features


Magnetic Filtered Arc Technology: Integrated magnetic coils deflect macro-particles and droplets away from the substrate stream, producing ultra-smooth droplet-free surfaces for precision optics and cutting tools.


Closed-Loop Gas Flow Control: MKS mass flow controllers regulate reactive gas partial pressure within +/- 0.1 sccm stability thresholds during reactive deposition phases.


Substrate Temperature Management: Programmable radiant heater banks combined with backside argon gas cooling maintain substrate thermal budgets between 150C and 600C.


Automated Process Recipes: PLC-based control architecture executing multi-step deposition protocols from ion cleaning, gradient interlayer etching, to terminal functional coating.

 

Vacuum System Configuration


Roughing Pump: Roots blower and rotary vane mechanical pump combination (Leybold / Edwards baseline).


High Vacuum Pump: High-throughput diffusion pumps or magnetically suspended turbomolecular pumps (>= 3200 L/s).


Valuation & Piping: Pneumatic stainless-steel vacuum gate valves, pneumatic angle valves, and elastomer-sealed KF/ISO flanges leak-tested via helium mass spectrometry (<= 1.0 x 10^-9 Pa*m^3/s).


Pressure Monitoring: Combined Pirani and Cold Cathode ionization gauges providing real-time feedback across atmosphere to ultra-high vacuum ranges.

 

Evaporation Materials & Substrate Compatibility


Target Materials: Titanium (Ti), Chromium (Cr), Aluminum-Titanium (AlTi), Zirconium (Zr), Copper (Cu), Stainless Steel, and custom alloy targets (purity >= 99.95%).


Substrate Materials:

  • Cemented Carbides (WC-Co)
  • High-Speed Steels (HSS)
  • Alloy Steels (SKD11, 316L, 4140)
  • Titanium Alloys (Ti-6Al-4V)
  • Engineering Ceramics and Heat-Resistant Superalloys

 

Applications


Cutting & Forming Tools: Deposition of TiAlN, AlCrN, and TiCN coatings on end mills, inserts, hobs, and stamping dies to increase surface hardness to 3200 HV and resist abrasive wear.


Automotive Components: Hard carbon (DLC) and CrN deposition on piston rings, fuel injection pins, and camshafts to reduce friction coefficients below 0.1 under dry running conditions.


Medical Implants: TiN and ZrN biocompatible diffusion coatings on cobalt-chromium and titanium knee and hip joints, minimizing metal ion leaching and wear debris generation.


Aerospace Hardware: Oxidation-resistant barrier coatings for turbine blades and fastener assemblies operating at elevated thermal thresholds.

 

Customization


Chamber Geometry: Vertical pit-type, horizontal front-loading, or double-door pass-through configurations tailored to existing shop-floor layouts.


Source Integration: Hybrid configurations merging cathodic arc sources with unbalanced magnetron sputtering (Ums) cathodes within a single chamber.


Jigging & Fixtures: Dedicated planetary or double-rotation tooling fixtures engineered via CAD/FEM simulation for specific component geometries (e.g., long extrusion dies or complex surgical screws).

 

Quality Control & Manufacturing Compliance


Quality Management Standards: Designed, fabricated, and tested under ISO 9001:2015 quality management and ISO 14001 environmental management systems.


Aerospace & Medical Traceability: Process controls and documentation protocols fully aligned with NADCAP AC7102 (Heat Treating/Surface Enhancement) requirements upon request.


Leak Integrity: Every vacuum vessel undergoes helium mass spectrometer leak testing prior to assembly sign-off.


Electrical Safety: High-voltage insulation resistance testing and grounding continuity checks conforming to CE / IEC standards.


Run-off Testing: 72-hour continuous dry-run endurance testing of mechanical rotation drives, water-cooling flow switches, and PLC interlock systems.


Documentation Deliverables: Material mill test certificates (MTC), vacuum leak test certificates, electrical schematic packages, and NIST-traceable sensor calibration reports.

 

Installation & Technical Support


Site Preparation Guidelines: Comprehensive utility layout documentation covering cooling water flow rates (>= 30 m^3/h), ambient temperature ranges, exhaust ventilation, and electrical power drops (3-phase, 380V/480V, 50/60Hz).


Commissioning Services: On-site mechanical positioning, vacuum piping integration, electrical hookup, and baseline recipe optimization executed by resident senior field service engineers.


Operator Training: 5-day intensive on-site training addressing routine maintenance, vacuum troubleshooting, target replacement protocols, and parameter tuning for specific film structures.


Spare Parts Inventory: Critical wear components (cathode insulators, dark space shields, dynamic seals, and filament arrays) stocked regionally for dispatch within 48 hours.

 

FAQ

 

Q: How is film thickness uniformity maintained across complex 3D substrates?

A: Uniformity is achieved via multi-axis planetary rotation fixtures combined with computerized magnetic steering coils that dynamically adjust ion plasma density distribution across the substrate zone, maintaining thickness variation within +/- 5%.

Q: What prevents macro-droplets from forming on the coated surface?

A: Macro-droplet generation is suppressed through filtered cathodic arc (FCA) technology utilizing curved magnetic duct filters that trap solid particulates while allowing ionized vapor to reach the substrate.

Q: What utility infrastructure is required on-site?

A: Facilities require a closed-loop chilled water system (capacity >= 80 kW, inlet temperature 18 to 22C), compressed air supply (0.6 to 0.8 MPa for pneumatic valves), dry nitrogen purging lines, and dedicated electrical power distribution matching system load requirements.

Q: Can this system deposit multilayer or gradient coatings?

A: Yes. The PLC architecture allows sequential activation of multiple target materials and real-time adjustment of reactive gas flows to deposit nano-layered structures or functional gradient interlayers.

 

Hot Tags: multi-arc ion deposition equipment, China multi-arc ion deposition equipment manufacturers, suppliers, factory

Send Inquiry
Contact us if you have any question

You can either contact us via phone, email or online form below. Our specialist will contact you back shortly.

Contact now!