Semiconductor EL part building in metal layer in the adulteration layer based on set image
An electroluminescent device and doped layer technology, which is applied in the field of integrated optoelectronics, can solve the problems of weak surface plasmon wave enhancement effect and inability to improve internal quantum efficiency, etc. The effect of quantum efficiency enhancement
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Embodiment 1
[0044] The basic structure of a semiconductor electroluminescence device embedded in a metal layer with a single layer of through holes is shown in Figure 4.
[0045] At a doping concentration of 3×10 16 cm -3 On p-type SiC(11), grow 50nm SiN x Nanocrystalline silicon (12) is used as the active region, and then 10nm SnO is deposited by magnetron sputtering 2 (13). Throw electron beam glue with a thickness of 300nm, carry out electron beam exposure, development, and fixation, and the remaining glue pattern is a disk with a diameter of about 450nm, which is periodically distributed in a square grid with a period of 630nm. Sequential deposition of 15 nm Si by magnetron sputtering 3 N 4 (15), 5nm Au(14), 15nm Si 3 N 4 (15). After degumming and washing, anneal at 700°C for 10 minutes. in KI / I 2 / H2O (1g / 1g / 200mL) Au corrosion solution soaked for 1min, after cleaning, and then deposited 300nm SnO by magnetron sputtering 2 (13). Finally, an upper electrode (17) and a lowe...
Embodiment 2
[0048] The basic structure of a semiconductor electroluminescent device with a single-layer disk embedded in a metal layer is shown in Figure 5.
[0049] At a doping concentration of 3×10 16 cm -3 On p-type SiC(11), grow 50nm SiN x Nanocrystalline silicon (12) is used as the active region, and then 10nm SnO is deposited by magnetron sputtering 2 (13). Throwing electron beam glue with a thickness of 300nm, electron beam exposure, development, and fixation, the remaining glue pattern contains holes with a diameter of about 150nm, which are periodically distributed in a square grid with a period of 420nm. Sequential deposition of 15 nm Si by magnetron sputtering 3 N 4 (25), 5nm Au(24), 15nm Si 3 N 4 (25). After degumming and washing, anneal at 700°C for 10 minutes. in KI / I 2 / H2O (1g / 1g / 200mL) Au corrosion solution soaked for 1min, after cleaning, and then deposited 300nm SnO by magnetron sputtering 2 (13). Finally, an upper electrode (17) and a lower electrode (16) a...
Embodiment 3
[0052] The basic structure of a single-layer one-dimensional grating-like semiconductor electroluminescence device embedded in a metal layer is shown in FIG. 6 .
[0053] At a doping concentration of 3×10 16 cm -3 cm -3 On p-type SiC(11), grow 50nm SiN x Nanocrystalline silicon (12) is used as the active region, and then 10nm SnO is deposited by magnetron sputtering 2 (13). Electron beam glue with a thickness of 300nm was thrown off, electron beam exposure, development, and fixation were performed, and the remaining glue pattern was a one-dimensional periodic grating with a duty ratio of 50% and a period of 420nm. Sequential deposition of 15 nm Si by magnetron sputtering 3 N 4 (35), 5nm Au(34), 15nm Si 3 N 4 (35). After degumming and washing, anneal at 700°C for 10 minutes. in KI / I 2 / H2O (1g / 1g / 200mL) Au corrosion solution soaked for 1min, after cleaning, and then deposited 300nm SnO by magnetron sputtering 2 (13). Finally, an upper electrode (17) and a lower ele...
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