Abstract:
The present disclosure provides a method for detecting resistance of a photo resist layer. The method includes: providing a silicon wafer and measuring a refractive index of a surface of the silicon wafer as an initial refractive index of the surface of the silicon wafer; forming photo resist layers with different thicknesses on the surface of the silicon wafer; performing ion-implantation on the photo resist layers by predetermined amounts; peeling off the photo resist layers from the surface of the silicon wafer; and testing the refractive indexes of different areas on the surface of the silicon wafer after the ion-implantation, on which the photo resist layers with different thicknesses are located and determining the resistance of the photo resist layers with different thicknesses in contrast to the initial refractive index before the ion-implantation.
Abstract:
A method for monitoring ion implantation, comprising: a), providing a control piece and forming a mask layer; b), performing ion implantation process to implant a predetermined dose of impurity ions into the control piece, an area on the control piece uncovered by the mask layer being an impurity implantation area and an area on the control piece covered by the mask layer being an impurity non-implantation area; c), peeling off the mask layer from the control piece; d), performing oxidation treatment on the control piece; and e), respectively measuring thicknesses of the oxide layers on the impurity implantation area and the impurity non-implantation area of the control piece, and monitoring the impurity dose of the ion implantation on the basis of a ratio of the thickness of the oxide layer in the impurity implantation area to the thickness of the oxide layer in the impurity non-implantation area. By this method, it is possible to accurately monitor whether or not the dose of the implanted ions meets the predetermined requirement, and it is possible to effectively avoid the defects of incorrect monitor result caused by the variation of the intrinsic resistance of the semiconductor, improve the accuracy of the monitoring, and thus improve the performance and yield rate of the device.
Abstract:
A detection panel and a detection apparatus are provided. The detection panel includes: a cesium iodide scintillator layer, which is not doped with thallium; and a photoelectric detector, which is arranged on a light emission side of the cesium iodide scintillator layer and includes a semiconductor layer; a forbidden band width of a material for forming the semiconductor layer is greater than or equal to 2.3 eV.
Abstract:
The present invention provides an improved ion implantation method and an ion implantation apparatus for performing the improved ion implantation method, belongs to the field of ion implantation technology, which can solve the problem of the poor stability and uniformity of the ion beam of the existing ion implantation apparatus. The improved ion implantation method of the invention comprises steps of: S1, detecting densities and beam distribution nonuniformities under various decelerating voltages; S2, determining an operation decelerating voltage based on the beam densities and the beam distribution nonuniformities; and S3, performing an ion implantation under the determined operation decelerating voltage. The present invention ensures the uniformity and stability of the ion beam, and thus ensures the uniformity of performances of the processed base materials in each batch or among various batches.
Abstract:
An array substrate and a manufacturing method thereof, and a display apparatus comprising the array substrate are provided. The array substrate comprises a base substrate, and a thin film transistor and a storing capacitor provided on the base substrate, the thin film transistor comprises a gate, a source, a drain and a gate insulation layer provided between the source and drain and the gate, the storing capacitor comprises a first plate, a second plate and a dielectric layer provided between the first plate and the second plate, wherein, both of the first plate and the second plate are formed of metal material, and the dielectric layer is formed of the same material as the gate insulation layer. In the array substrate of the present invention, the charging speed of the storing capacitor can be improved and the display quality of the display apparatus comprising the array substrate is further improved.
Abstract:
A method of testing a blocking ability of a photoresist blocking layer for ion implantation, comprising: forming a photoresist blocking layer (S1) on a substrate; measuring a first thickness (S2) of the photoresist blocking layer at an arbitrary position on the substrate, the first thickness being a thickness of the photoresist blocking layer; implanting a predetermined amount of ions (S3) into the photoresist blocking layer; measuring a second thickness (S4) of the photoresist blocking layer at the arbitrary position, the second thickness being a thickness of a hardened portion in the photoresist blocking layer; and determining a blocking ability (S5) of the photoresist blocking layer with the first thickness for ion implantation according to the second thickness. This method does not need to use a testing silicon slice during the process of testing the blocking ability of a photoresist blocking layer for ion implantation, and thus can reduce required costs during the testing process.
Abstract:
The present disclosure provides a method for detecting resistance of a photo resist layer. The method includes: providing a silicon wafer and measuring a refractive index of a surface of the silicon wafer as an initial refractive index of the surface of the silicon wafer; forming photo resist layers with different thicknesses on the surface of the silicon wafer; performing ion-implantation on the photo resist layers by predetermined amounts; peeling off the photo resist layers from the surface of the silicon wafer; and testing the refractive indexes of different areas on the surface of the silicon wafer after the ion-implantation, on which the photo resist layers with different thicknesses are located and determining the resistance of the photo resist layers with different thicknesses in contrast to the initial refractive index before the ion-implantation.