Overview
This is a state-of-the-art thin film deposition system equipped with two independently controlled e-beam sources, enabling the simultaneous, precise co-deposition of different deposition materials.
Moving away from conventional sequential deposition methods, it achieves nanometer-scale fine thickness control and perfect high-precision alloy composition in a single process. It offers exceptional flexibility that transcends process limitations, covering oxides, metals, and high-melting-point materials.
Features
≻ Independently Controlled Dual E-Beam Source
By applying individual RF/DC power supplies and independent Quartz Crystal Sensor (QCM) monitoring systems to two E-beam sources, the deposition rate of each material is perfectly controlled in real time.
≻ Precise Co-Deposition Algorithm
It enables the simultaneous deposition of heterogeneous materials while accurately maintaining the desired stoichiometry, making it optimized for the formation of high-quality, highly integrated compound thin films and multilayer structures.
Overview
This is a state-of-the-art thin film deposition system equipped with two independently controlled e-beam sources, enabling the simultaneous, precise co-deposition of different deposition materials.
Moving away from conventional sequential deposition methods, it achieves nanometer-scale fine thickness control and perfect high-precision alloy composition in a single process. It offers exceptional flexibility that transcends process limitations, covering oxides, metals, and high-melting-point materials.
Features
≻ Independently Controlled Dual E-Beam Source
By applying individual RF/DC power supplies and independent Quartz Crystal Sensor (QCM) monitoring systems to two E-beam sources, the deposition rate of each material is perfectly controlled in real time.
≻ Precise Co-Deposition Algorithm
It enables the simultaneous deposition of heterogeneous materials while accurately maintaining the desired stoichiometry, making it optimized for the formation of high-quality, highly integrated compound thin films and multilayer structures.
Specifications
|
ITEM |
SPECIFICATIONS |
|
Process Chamber |
Stainless steel |
|
Vacuum Pumping Station |
Cryo, TMP |
|
Loadlock Chamber |
Optional item |
|
Substrate Unit |
Rotation / Heating / Cooling |
|
Substrate Angle |
0 ~ 110° |
|
Sample Size |
4”, 6”, 8" |
|
Vacuum Gauge Controller |
ATM ~ 1.0E-10Torr |
|
Power Supply Unit |
6kW, 8kW, 10kW |
|
Crucible Size |
4cc, 7cc, 15cc, 25cc |
|
Pocket Number |
Single, 4, 6 |
|
Film Thickness Uniformity |
< ± 2.99% |
|
Ultimate Pressure |
< 1.99E-7Torr |
|
System Control |
Full Automatic |
Specifications
|
ITEM |
SPECIFICATIONS |
|
Process Chamber |
Stainless steel |
|
Vacuum Pumping Station |
Cryo, TMP |
|
Loadlock Chamber |
Optional item |
|
Substrate Unit |
Rotation / Heating / Cooling |
|
Substrate Angle |
0 ~ 110° |
|
Sample Size |
4”, 6”, 8" |
|
Vacuum Gauge Controller |
ATM ~ 1.0E-10Torr |
|
Power Supply Unit |
6kW, 8kW, 10kW |
|
Crucible Size |
4cc, 7cc, 15cc, 25cc |
|
Pocket Number |
Single, 4, 6 |
|
Film Thickness Uniformity |
< ± 2.99% |
|
Ultimate Pressure |
< 1.99E-7Torr |
|
System Control |
Full Automatic |
Options
- UHV Type Chamber(Less than 9.90E-9 Torr)
- Loadlock Chamber
- Sample Cleaning
- Power Selection
- Substrate Heating/Cooling
- Lift-Off plate
- Etc... user requirements
Options
- UHV Type Chamber(Less than 9.90E-9 Torr)
- Loadlock Chamber
- Sample Cleaning
- Power Selection
- Substrate Heating/Cooling
- Lift-Off plate
- Etc... user requirements
