MPCVD Reactor

MPCVD Reactor

Microwave Plasma Chemical Vapour Deposition (MPCVD) reactors work on the principle of growing homo- and hetero-epitaxial single-crystal diamonds or polycrystalline diamonds on various substrates using a gaseous carbon precursor aided by microwave plasma discharge. In the interest of growing uniform and defect-free diamonds, the reactor performance stability is expected for couple hundred hours.

  • Reliable And Efficient Chamber Made Out Of Stainless Steel To Prevent Degassing And Contamination.
  • Convenient Design For Effortless Cleaning And Maintenance.
  • High-precision water-cooled Z-axis moving stage.
  • Vacuum Leakage Rate Of  The Order Of 10-10 Torr-ltr/sec. 
  • Zero Leakage Of Microwave Radiations Throughout The Deposition Process.
  • Stability Throughout A Wide Range Of Operating Pressure (20 to 500 Torr).
  • Complete Automated Control And Surveillance Over All Growth Parameters In Real Run-Time.
  • High Plasma Stability Over A Broad Range Of Pressure And Power.
  • Uniform Temperature Profile Throughout The Deposition Area with a Minute Variation Of Within ±2.5%.
  • Growth Area Of 60 and 75 mm Diameter for 6 and 10 kW reactors, respectively.
  • Turbo Molecular Pump-based  MPCVD Reactors Are Available For The Deposition Of Ultra-pure SCDs.

Our MPCVD Reactor Is Available In 6 kW And 10 kW Variants. The Reactors Are Equipped With Dual-Stage Rotary Vane Pump That Can Generate A Vacuum Of <5 X 10-3 Torr, And Optionally Can Be Used Along With Turbo Molecular Pump To Achieve An Ultimate Vacuum Of 10-6 Torr.

Our MPCVD Reactor Is Available In 6 kW And 12 kW Variants. The Reactors Are Equipped With Dual-Stage Rotary Vane Pump That Can Generate A Vacuum Of <5 X 10-3 Torr, And Optionally Can Be Used Along With Turbo Molecular Pump To Achieve An Ultimate Vacuum Of 10-6 Torr.

Microwave Plasma Chemical Vapour Deposition (MPCVD) reactors work on the principle of growing homo- and hetero-epitaxial single-crystal diamonds or polycrystalline diamonds on various substrates using a gaseous carbon precursor aided by microwave plasma discharge. In the interest of growing uniform and defect-free diamonds, the reactor performance stability is expected for couple hundred hours.

  • Reliable And Efficient Chamber Made Out Of Stainless Steel To Prevent Degassing And Contamination.
  • Convenient Design For Effortless Cleaning And Maintenance.
  • High-precision water-cooled Z-axis moving stage.
  • Vacuum Leakage Rate Of  The Order Of 10-10 Torr-ltr/sec. 
  • Zero Leakage Of Microwave Radiations Throughout The Deposition Process.
  • Stability Throughout A Wide Range Of Operating Pressure (20 to 500 Torr).
  • Complete Automated Control And Surveillance Over All Growth Parameters In Real Run-Time.
  • High Plasma Stability Over A Broad Range Of Pressure And Power.
  • Uniform Temperature Profile Throughout The Deposition Area with a Minute Variation Of Within ±2.5%.
  • Growth Area Of 60 and 75 mm Diameter for 6 and 10 kW reactors, respectively.
  • Turbo Molecular Pump-based  MPCVD Reactors Are Available For The Deposition Of Ultra-pure SCDs.

Our MPCVD Reactor Is Available In 6 kW And 10 kW Variants. The Reactors Are Equipped With Dual-Stage Rotary Vane Pump That Can Generate A Vacuum Of <5 X 10-3 Torr, And Optionally Can Be Used Along With Turbo Molecular Pump To Achieve An Ultimate Vacuum Of 10-6 Torr.

Hetero-epitaxial Diamonds

Our R&D team is constantly working to develop hetero-epitaxial growth
of single-crystal diamond wafers of a larger area.

Electronic Grade Diamonds

Our R&D Team has developed Electronic grade SCDs with Nitrogen Content of less than 100 ppb. Substrates are available for various technological applications that include the creation of isolated NV centers.

Hetero-epitaxial Diamonds

Our R&D team is constantly working to develop hetero-pitaxial growth of single-crystal diamond wafers of a larger area.

Electronic Grade Diamonds

Our R&D Team has developed Electronic grade SCDs with Nitrogen Content of less than 100 ppb. Substrates are available for various technological applications that include the creation of isolated NV centers.