Method for characterizing electrical characteristics of transparent conductive film based on full-spectrum method
A transparent conductive film, full spectrum technology, applied in the field of characterizing the electrical characteristics of transparent conductive films based on full spectrum method, can solve the problems of large influence of film resistivity, high damage risk and high requirements
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0043] Characterization of electrical characteristics of transparent conductive film ITO by full spectrum method
[0044] S1. Prepare an ITO transparent conductive film sample on a double-sided polished sample, and the transparent area of the substrate needs to be within the test wavelength range;
[0045] S2. Measure the transmission spectrum and reflection spectrum of the ITO thin film sample on the quartz substrate in the ultraviolet-visible light band and infrared band;
[0046] S3. Use the Cody-Lorentz and Gaussian dispersion oscillator model to characterize the energy band transition and oxygen vacancy characteristics in the short-wave direction;
[0047] S4. Use the Drude oscillator model to characterize the free electron characteristics of ITO thin film samples in the long-wave direction;
[0048] S5. Taking the transmission spectrum and reflection spectrum of the ultraviolet-visible light band and infrared band as the inversion calculation target, using the model i...
Embodiment 2
[0056] Characterization of Electrical Characteristics of Ultrathin Metal Films by Full Spectroscopy
[0057] S1. Prepare ultra-thin Ag film samples on double-sided polished quartz substrates. In order to prevent the ultra-thin Ag films from being oxidized, the film structure of Sub / D / M / D / is adopted, D is a dielectric film, and M is a metal film.
[0058] S2 Test the transmission spectrum and reflection spectrum of the ultra-thin metal film sample on the quartz substrate in the ultraviolet-visible light band and infrared band; S3. Use Cody-Lorentz to establish a multi-oscillator dispersion model to characterize the energy band transition characteristics in the short-wave direction;
[0059] S4. Using the Drude oscillator model to characterize the characteristics of free electrons in the long-wave direction;
[0060] S5. Taking the transmission spectrum and reflection spectrum in the ultraviolet-visible and infrared bands as the inversion calculation target, using the Cody-Lore...
PUM
| Property | Measurement | Unit |
|---|---|---|
| thickness | aaaaa | aaaaa |
| electrical resistivity | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 


