Preparation method of CdS/Si nano-film heterojunction
A nano-film, heterojunction technology, applied in ion implantation plating, metal material coating process, coating and other directions, can solve problems such as unfavorable industrialization, increase device cost, and high requirements for preparation parameters, and reduce production. Cost, size reduction, low value effect
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0040] Such as figure 1 As shown, the preparation method of the CdS / Si nano-film heterojunction of the present embodiment, the method first takes the ITO conductive film as the substrate, utilizes magnetron sputtering technology to deposit Si on the ITO conductive film, and prepares the nanostructure ITO / Si ; Then use magnetron sputtering technology to deposit CdS on nanostructure ITO / Si to prepare nanostructure ITO / Si / CdS; finally use magnetron sputtering technology to deposit Ag on nanostructure ITO / Si / CdS to prepare nanometer ITO / Si / CdS Si / CdS / Ag heterojunction. Specifically include the following steps:
[0041] Step S101, the ITO conductive film is fixed on the sample holder of the magnetron sputtering chamber, and the magnetron sputtering chamber is evacuated to 10 -6 Pa, then fill the magnetron sputtering chamber with argon to keep the vacuum of the magnetron sputtering chamber at 10 -1 Pa~50Pa;
[0042] Step S102, adjusting the distance between the Si target and the...
Embodiment 2
[0052] The preparation method of the CdS / Si nano-film heterojunction of the present embodiment comprises the following steps:
[0053] Step S201, the ITO conductive thin film is fixed on the sample holder of the magnetron sputtering chamber, and the magnetron sputtering chamber is evacuated to 10 -6 Pa, then fill the magnetron sputtering chamber with argon to keep the vacuum of the magnetron sputtering chamber at 1Pa;
[0054] Step S202, adjusting the distance between the Si target and the ITO conductive film to be 5cm, and setting the sputtering power to 60W;
[0055] Step S203, pre-sputtering for 60s, opening the baffle of the Si target, and starting sputtering for 10 minutes, depositing Si on the ITO conductive film with a thickness of about 1 μm to prepare nanostructured ITO / Si;
[0056] Step S204, after the sputtering time is up, turn off the sputtering power supply, turn on the heating power supply, heat the ITO / Si sample to 300°C for 30 minutes, and keep it under 1Pa p...
Embodiment 3
[0065] Step S301, the ITO conductive film is fixed on the sample holder of the magnetron sputtering chamber, and the magnetron sputtering chamber is evacuated to 10 -6 Pa, then fill the magnetron sputtering chamber with argon to keep the vacuum of the magnetron sputtering chamber at 1Pa;
[0066] Step S302, adjusting the distance between the Si target and the ITO conductive film to be 5cm, and setting the sputtering power to 60W;
[0067] Step S303, pre-sputtering for 60s, opening the baffle of the Si target, starting sputtering, sputtering for 20 minutes, depositing Si on the ITO conductive film with a thickness of about 2 μm, and preparing nanostructured ITO / Si;
[0068] Step S304, after the sputtering time is up, turn off the sputtering power supply, turn on the heating power supply, heat the ITO / Si sample to 300°C for 30 minutes, and keep it under 1Pa pressure for 50 minutes. The structure of the Si film is as follows Figure 7 As shown, its shape is as Figure 8 shown; ...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


