H01L31/02963

DISPLAY APPARATUS

A display apparatus including a display panel is provided. The display panel has a plurality of display blocks, wherein each display block includes a light conversion circuit, a pixel array, and a data voltage selection circuit. The light conversion circuit receives the light pulse signal and has a pull-up circuit and a pull-down circuit, wherein the pull-up circuit and the pull-down circuit are coupled between a system high voltage and a system low voltage, and the pull-up circuit and the pull-down circuit output the system high voltage or system low voltage according to the light pulse signal to form a voltage pulse signal. The data voltage selection circuit is coupled to the light conversion circuit and the pixel array and receives an AC waveform voltage to supply a data signal to the pixel array according to the voltage pulse signal.

VAPOR TRANSPORT DEPOSITION METHOD AND SYSTEM FOR MATERIAL CO-DEPOSITION
20190081199 · 2019-03-14 · ·

An improved feeder system and method for continuous vapor transport deposition that includes at least two vaporizers couple to a common distributor through an improved seal for separately vaporizing and collecting at least any two vaporizable materials for deposition as a material layer on a substrate. Multiple vaporizer provide redundancy and allow for continuous deposition during vaporizer maintenance and repair.

Photodetectors exploiting electrostatic trapping and percolation transport

This disclosure provides systems, methods, and apparatus related to photodetectors. In one aspect, a photodetector device comprises a substrate, a polycrystalline layer disposed on the substrate, and a first electrode and a second electrode disposed on the polycrystalline layer. The polycrystalline layer comprises nanograins with grain boundaries between the nanograins. The nanograins comprise a semiconductor material. A doping element comprising a halogen is segregated at the grain boundaries. A length of the polycrystalline layer is between and separating the first electrode and the second electrode.

X-ray sensor and method of manufacturing the same

This invention relates to a direct conversion X-ray sensor and to a method of manufacturing the same. This X-ray sensor includes an array substrate including a pixel electrode formed so as to protrude from a surface thereof at a pixel region; a photoconductive substrate including an upper electrode, and a photoconductive layer formed on a surface of the upper electrode so as to be in contact with the pixel electrode and having a PIN diode structure; and a bonding material filling a space around a contact region of the pixel electrode and the photoconductive layer so as to bond the array substrate and the photoconductive substrate.

Polaritonic hot electron infrared photodetector

Polaritonic hot electron infrared photodetector that detect infrared radiation. In one implementation, the polaritonic hot electron infrared photodetector includes a first contact layer, a second contact layer, a first dielectric layer, a second dielectric layer, and a conductor layer. The first dielectric layer is coupled between the first contact layer and the second contact layer. The second dielectric layer is coupled between the first dielectric layer and the second contact layer. The conductor layer is coupled between the first dielectric layer and the second dielectric layer. Infrared radiation incident upon the conductor layer is operable to create hot carriers that are injected from a conduction band of the conductor layer to a conduction band of the second contact layer.

DEVICES AND METHODS FEATURING THE ADDITION OF REFRACTORY METALS TO CONTACT INTERFACE LAYERS
20180358487 · 2018-12-13 ·

Disclosed embodiments include CdS/CdTe PV devices (100) having a back contact (110,112) with oxygen gettering capacity. Also disclosed are back contact structures (110, 112) and methods of forming a back contact in a CdS/CdTe PV device (100). The described contacts and methods feature a contact having a contact interface layer (100) comprising a contact interface material, a p-type dopant and a gettering metal.

Photovaltaic device conducting layer
10153386 · 2018-12-11 · ·

A multilayered structure may include a doped buffer layer on a transparent conductive oxide layer.

Vapor transport deposition method and system for material co-deposition
10147838 · 2018-12-04 · ·

An improved feeder system and method for continuous vapor transport deposition that includes at least two vaporizers coupled to a common distributor through an improved seal for separately vaporizing and collecting at least any two vaporizable materials for deposition as a material layer on a substrate. Multiple vaporizers provide redundancy and allow for continuous deposition during vaporizer maintenance and repair.

Photovoltaic devices and methods for making the same

A photovoltaic device includes a support layer; a first layer comprising cadmium, tellurium and copper and being of n-type; a second layer comprising cadmium, tellurium and copper and being of p-type; and a transparent conductive oxide layer. A method for making a photovoltaic device includes providing a stack comprising a cadmium and tellurium comprising layer and a copper comprising layer on the cadmium and tellurium comprising layer; and thermally annealing the stack to form a first layer and a second layer each comprising cadmium, tellurium and copper, the first layer being of n-type, the second layer being of p-type.

PHOTODETECTION DEVICE WHICH HAS AN INTER-DIODE ARRAY AND IS OVERDOPED BY METAL DIFFUSION AND MANUFACTURING METHOD

A photodetection device and a method for manufacturing the device, the device including a substrate and an array of diodes, the substrate including an absorption layer including a first type of doping, and each diode including, in the absorption layer, a collection region including a second type of doping opposite to the first type. The device further includes, under the surface of the substrate, a conductive mesh including at least one conductive channel inserted between the collection regions of two adjacent diodes, the at least one conductive channel including the first type of doping and a higher doping density than the absorption layer. The doping density of the at least one conductive channel is the result of a diffusion of metal in the absorption layer from a metal mesh provided on the surface of the substrate.