PVD Composite Deposition Equipment

PVD Composite Deposition Equipment

Details
Industrial PVD Composite Deposition Equipment is engineered for multi-component, multi-layer, and nano-composite thin-film fabrication. The system integrates thermal evaporation, e-beam evaporation, and magnetron sputtering sources within a single vacuum environment to control film composition, interface sharpness, and residual stress. Built for continuous R&D and production, the architecture features low base pressure, modular source configuration, and clean maintenance access.
Category
PVD Composite Thin Film Equipment
 
Send Inquiry
Description
Technical Parameters

Industrial PVD Composite Deposition Equipment is engineered for multi-component, multi-layer, and nano-composite thin-film fabrication. The system integrates thermal evaporation, e-beam evaporation, and magnetron sputtering sources within a single vacuum environment to control film composition, interface sharpness, and residual stress. Built for continuous R&D and production, the architecture features low base pressure, modular source configuration, and clean maintenance access.

 

Technical Specifications

 

Parameter

Specification Range / Value

Ultimate Vacuum Pressure

<= 5.0 x 10^-5 Pa (cryo/turbomolecular configuration)

Pump-Down Time

Atmospheric to 6.0 x 10^-4 Pa in <= 15 minutes (clean, dry, empty chamber)

Substrate Holder Size

Custom configurations: up to Dia. 600 mm flat plate or planetary stages

Film Thickness Uniformity

< +/- 1.5% across standard working area (verified via in-situ optical monitoring)

Substrate Temperature Range

Ambient to 800 deg.C (PID controlled, quartz halogen/resistive heating)

Deposition Sources

Multi-pocket e-beam guns, thermal boats, and RF/DC magnetron cathodes

Chamber Material

304L/316L stainless steel, electro-polished inner walls (Ra <= 0.2 um)

System Control Interface

PLC + IPC architecture, automated recipe execution, SCADA logging

 

Key Features


Modular Source Integration: Chamber ports accommodate simultaneous or sequential operation of evaporation and sputtering sources without cross-contamination.


Dynamic Substrate Manipulation: Multi-axis planetary or swing rotation drive mechanisms ensure conformal coating on complex 3D substrates and deep trenches.


In-Situ Monitoring Ports: Pre-aligned flanges for quartz crystal microbalance (QCM), optical emission spectroscopy (OES), and broadband optical monitoring (BOM).


High-Purity Vacuum Integrity: Metal-sealed conflat (CF) flanges, pneumatic gate valves, and Helium mass spectrometer leak testing down to 1.0 x 10^-10 Pa*m3/s.


Automated Interlock Safety: Real-time sensor feedback protects against cooling water failure, compressed air loss, and over-temperature anomalies.

 

Vacuum System Configuration


Roughing & Roots Pumps: Oil-free dry screw pumps combined with roots blowers prevent hydrocarbon backstreaming into the process chamber.


High-Vacuum Pumps: Magnetically levitated turbomolecular pumps or closed-loop helium cryogenic pumps selected per target gas load requirements.


Pressure Regulation: Throttle valve controllers integrated with capacitance manometers maintain stable process pressure (0.1 Pa to 10 Pa) during reactive runs.

 

Materials & Substrate Compatibility

 

Deposition Materials

Metals: Ti, Al, Cr, Cu, Au, Ag, Ni, Mo, W, Pt
Oxides & Dielectrics: SiO2, TiO2, Ta2O5, Al2O3, HfO2
Nitrides & Carbides: TiN, TiAlN, CrN, Si3N4

Substrate Materials

Semiconductors: Silicon wafers (100 mm to 300 mm), glass, quartz, sapphire
Metals & Alloys: Stainless steel, titanium alloys, tool steels, superalloys
Ceramics & Polymers: Alumina, zirconia, polyimide films

Applications


Optical Interference Filters: Multi-layer anti-reflective (AR) coatings, bandpass filters, and high-reflector mirrors for lasers and sensors.


Wear-Resistant Hard Coatings: Nanocomposite nitride coatings (TiAlN/Si3N4) on precision cutting tools and automotive valvetrains.


Microelectronic Thin Films: Conductive barrier layers, seed layers, and contact metallization stacks for semiconductor packaging.


Functional Energy Films: Transparent conductive oxides (TCO) and absorber layers for photovoltaic and sensor devices.

 

Customization Options


Chamber Dimensions: Scaled volume from R&D scale (400 mm cube) to production scale (Dia. 1200 mm cylindrical).


Source Port Layouts: Custom flange positioning to integrate third-party ion sources, plasma-assisted deposition (PAD), or RF bias generators.


Load-Lock Integration: Manual load-lock, single-wafer load-lock, or multi-chamber cluster tool configurations to prevent oxidation.

 

Quality Control & Global Compliance


Global Electrical & Safety Compliance: Control cabinets built to UL 508A / NFPA 79 (North America), CE (Europe), and SEMI S2/S8 EHS guidelines.


Vacuum Testing: Welded chambers undergo Helium mass spectrometer leak detection prior to surface finishing.


Dimensional Inspection: Coordinate measuring machine (CMM) verification of source mounting planes and substrate tolerances.


Factory Acceptance Test (FAT): 72-hour continuous dry-run test recording base pressure decay, pump-down curves, and PLC response logs.

 

Installation & Technical Support


Pre-Installation Engineering: Provision of facility requirement manuals (utilities, cooling water flow/pressure, exhaust ventilation, cleanroom floor loading).


On-Site Commissioning: Field service engineers oversee rigging, vacuum line hookup, electrical tie-in, and initial pump-down.


Process Tuning Assistance: Collaborative trial runs with customer engineering teams to verify film uniformity and deposition rates.


Lifecycle Support: Remote diagnostics module integration for real-time PLC troubleshooting, supported by localized spare parts inventory.

 

Frequently Asked Questions

 

Q: What is the lead time for a custom system?

A: Standard configurations require 16 to 24 weeks from drawing approval to factory readiness, depending on vacuum pump lead times.

Q: How is cross-contamination managed during multi-source co-deposition?

A: Chambers incorporate physical shielding between sources, individual source shutters, and directional gas distribution rings to prevent particulate migration.

Q: Can this equipment be integrated into a cleanroom facility?

A: Yes. Systems support through-the-wall (yellow room / cleanroom) installation, placing the process chamber inside the cleanroom and utility racks in the service chase.

Q: What utility requirements must be prepared prior to delivery?

A: Requirements include 3-phase power (configured to local 480V/380V standards), chilled cooling water (18 deg.C to 22 deg.C, >= 3 bar), compressed air (6 bar dry/filtered), and a dedicated roughing pump exhaust line.

 

Hot Tags: pvd composite deposition equipment, China pvd composite 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!