P-GaN enhanced HEMT device and preparation method thereof
An enhanced, device technology used in the field of microelectronics to solve problems such as poor lattice quality
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0033] (1) growing a nucleation layer ALN102 on a SiC substrate 101 with a thickness of 100 nm;
[0034] (2) growing an ALGaN buffer layer 103 on the aforementioned steps with a thickness of 600 nm;
[0035] (3) growing a GaN channel layer 104 on the aforementioned steps with a thickness of 2um;
[0036] (4) growing an ALN insertion layer 105 on the aforementioned steps with a thickness of 2 nm;
[0037] (5) growing an ALGaN barrier layer 106 on the aforementioned steps with a thickness of 20 nm;
[0038] (6) growing LTPGaN107 on the aforementioned steps with a thickness of 20nm;
[0039] (7) PGAN108 is grown on the aforementioned steps, with a thickness of 100 nm;
[0040] (8) Electron beam evaporation technology is used for metal deposition on the basis of the foregoing steps. Deposit Ti / Al / Ti / Au metals in sequence, with thicknesses of 20nm / 100nm / 30nm / 120nm respectively, to form source electrode 110 and drain electrode 111, and perform annealing treatment to form ohmic...
Embodiment 2
[0045] (1) growing a nucleation layer ALN102 on a SiC substrate 101 with a thickness of 100 nm;
[0046] (2) growing an ALGaN buffer layer 103 on the aforementioned steps with a thickness of 600 nm;
[0047] (3) growing a GaN channel layer 104 on the aforementioned steps with a thickness of 2um;
[0048] (4) growing an ALN insertion layer 105 on the aforementioned steps with a thickness of 2 nm;
[0049] (5) growing an ALGaN barrier layer 106 on the aforementioned steps with a thickness of 20 nm;
[0050] (6) growing LTPGaN107 on the aforementioned steps with a thickness of 30nm;
[0051] (7) PGAN108 is grown on the aforementioned steps, with a thickness of 100 nm;
[0052] (8) Electron beam evaporation technology is used for metal deposition on the basis of the foregoing steps. Deposit Ti / Al / Ti / Au metals in sequence, with thicknesses of 20nm / 100nm / 30nm / 120nm respectively, to form source electrode 110 and drain electrode 111, and perform annealing treatment to form ohmic...
Embodiment 3
[0057] (1) growing a nucleation layer ALN102 on a SiC substrate 101 with a thickness of 100 nm;
[0058] (2) growing an ALGaN buffer layer 103 on the aforementioned steps with a thickness of 600 nm;
[0059] (3) growing a GaN channel layer 104 on the aforementioned steps with a thickness of 2um;
[0060] (4) growing an ALN insertion layer 105 on the aforementioned steps with a thickness of 2 nm;
[0061] (5) growing an ALGaN barrier layer 106 on the aforementioned steps with a thickness of 20 nm;
[0062] (6) growing LTPGaN107 on the aforementioned steps with a thickness of 40nm;
[0063] (7) PGAN108 is grown on the aforementioned steps, with a thickness of 100 nm;
[0064] (8) Electron beam evaporation technology is used for metal deposition on the basis of the foregoing steps. Deposit Ti / Al / Ti / Au metals in sequence, with thicknesses of 20nm / 100nm / 30nm / 120nm respectively, to form source electrode 110 and drain electrode 111, and perform annealing treatment to form ohmic...
PUM
| Property | Measurement | Unit |
|---|---|---|
| thickness | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 

