Method for manufacturing Y wave-guide integrated optics device lithium niobate chip
An optical device and waveguide integration technology, applied in optical components, optical waveguide, optical, etc., can solve problems such as device waveform tilt, and achieve the effects of avoiding corrosion, reducing environmental pollution, and reducing quantity
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Embodiment 1
[0025] The realization steps of the present invention are as follows:
[0026] 1. Transfer the waveguide device pattern from the photolithography plate to the lithium niobate wafer by photolithography, and form the Y waveguide device pattern of photoresist on it;
[0027] 2. Growth of SiO on lithium niobate wafers by sputtering 2 , and lift off, then SiO is formed on the lithium niobate wafer 2 The waveguide mask pattern;
[0028] 3. The proton exchange process is as follows:
[0029] (1) 300 grams of pure benzoic acid are weighed and put into a quartz proton exchange cup;
[0030] (2) SiO with the mask prepared 2 Put the lithium niobate wafer on the quartz exchange fixture and put it into the quartz exchange cup together, but it should be noted that the lithium niobate wafer is only suspended in the exchange cup and does not contact with benzoic acid;
[0031] (3) Place the proton exchange cup in the constant temperature zone of the proton exchange furnace;
[0032] (4)...
Embodiment 2
[0054] 1. Transfer the waveguide device pattern from the photolithography plate to the lithium niobate wafer by photolithography, and form the Y waveguide device pattern of photoresist on it;
[0055] 2. Growth of SiO on lithium niobate wafers by chemical vapor deposition (PECVD) 2 , and lift off, then SiO is formed on the lithium niobate wafer 2 The waveguide mask pattern;
[0056] 3. The proton exchange process is as follows:
[0057] (1) Weigh 400 grams of pure benzoic acid and put it into a quartz proton exchange cup;
[0058] (2) SiO has been prepared 2 The masked lithium niobate wafer is placed on the quartz exchange fixture and put into the quartz exchange cup together, but it should be noted that the wafer is only suspended in the exchange cup and does not contact with pure benzoic acid;
[0059] (3) Place the proton exchange cup in the constant temperature zone of the proton exchange furnace;
[0060] (4) Open the proton exchange furnace and lower its temperature...
Embodiment 3
[0082] 1. Transfer the waveguide device pattern from the photolithography plate to the lithium niobate wafer by photolithography, and form the Y waveguide device pattern of photoresist on it;
[0083] 2. Growth of SiO on lithium niobate wafers by chemical vapor deposition (PECVD) 2 , and lift off, then SiO is formed on the lithium niobate wafer 2 The waveguide mask pattern;
[0084] 3. The proton exchange process is as follows:
[0085] (1) Weigh 500 grams of pure benzoic acid and put it into a quartz proton exchange cup;
[0086] (2) Put the lithium niobate wafer that has been prepared with a silicon dioxide mask on the quartz exchange fixture and put it into the quartz exchange cup together, but it should be noted that the lithium niobate wafer is only suspended in the exchange cup and does not exposure to benzoic acid;
[0087] (3) Place the proton exchange cup in the constant temperature zone of the proton exchange furnace;
[0088] (4) Open the proton exchange furnac...
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