Abstract:
A detector module for detecting photons includes a detector formed from a semiconductive material, the detector having a first surface, an opposing second surface, and a plurality of sidewalls extending between the first and second surfaces, and a guard band coupled to the sidewalls, the guard band having a length that extends about a circumference of the detector, the guard band having a width that is greater than a thickness of the detector such that an upper rim segment of the guard band projects beyond the first surface of the detector, the upper rim segment being folded over a peripheral region of the first surface along the circumference of the detector, the guard band configured to reduce recombinations proximate to the edges of the detector.
Abstract:
An imaging panel (10) includes a photodiode (15), and a metal layer (43) provided below the photodiode and being in contact with a TFT (14) via a contact hole (CH1). A method of producing the imaging panel (10) includes forming a metal film (43p) covering to protect a first insulating film (42), subsequently forming semiconductor films to configure an n-type amorphous silicon layer (151), an intrinsic amorphous silicon layer (152), and a p-type amorphous silicon layer (153), and further forming the photodiode (15) by patterning the semiconductor films through dry etching.
Abstract:
A detector module for detecting photons includes a detector formed from a semiconductive material, the detector having a first surface, an opposing second surface, and a plurality of sidewalls extending between the first and second surfaces, and a guard band coupled to the sidewalls, the guard band having a length that extends about a circumference of the detector, the guard band having a width that is greater than a thickness of the detector such that an upper rim segment of the guard band projects beyond the first surface of the detector, the upper rim segment being folded over a peripheral region of the first surface along the circumference of the detector, the guard band configured to reduce recombinations proximate to the edges of the detector.
Abstract:
Silicon-based or other electronic circuitry is dissolved or otherwise disabled by reactive materials within a semiconductor chip should the chip or a device containing the chip be subjected to tampering. Triggering circuits containing normally-OFF heterojunction field-effect photo-transistors are configured to cause reactions of the reactive materials within the chips upon exposure to light. The normally-OFF heterojunction field-effect photo-transistors can be fabricated during back-end-of-line processing through the use of polysilicon channel material, amorphous hydrogenated silicon gate contacts, hydrogenated crystalline silicon source/drain contacts, or other materials that allow processing at low temperatures.
Abstract:
A method and a device for reducing the extrinsic dark count of a superconducting nanowire single photon detector (SNSPD), it comprises the steps of: integrating a multi-layer film filter on the superconducting nanowire single photon detector; the multi-layer film filter is a device implemented by a multi-layer dielectric film and having a band-pass filtering function. The extrinsic dark count is the dark count triggered by optical fiber blackbody radiance and external stray light. The superconducting nanowire single photon detector comprises: a substrate having an upper surface integrated with an upper anti-reflection layer and a lower surface integrated with a lower anti-reflection layer; an optical cavity structure; a superconducting nanowire; and a reflector. The present invention is easy to operate, and only needs to integrate the multi-layer film filter on the substrate of the SNSPD to filter non-signal radiation.
Abstract:
Provided is an infrared sensor which is capable of measuring a temperature of an object to be measured with high accuracy even when lead wires are connected to one side thereof. The infrared sensor includes an insulating film; a first and a second heat sensitive element which are provided on one face of the insulating film; a first and a second wiring film that are respectively connected to the first and the second heat sensitive element; an infrared reflecting film; a plurality of terminal electrodes; and a thermal resistance adjusting film which is provided on the other face of the insulating film, is in opposition to at least a portion of the longer one of the first or the second wiring film in wiring distance from the terminal electrodes, and is formed of a material with greater heat dissipation than the insulating film.
Abstract:
A display panel having health monitoring function, including a first substrate; a second substrate; and a monitoring unit. The monitoring unit is configured to monitor a change in human physiological information and is disposed on the first substrate or the second substrate through a patterning process. Such display panel having health monitoring function solves the technical problem that existing display panels having health monitoring function are poor in level of integration with incompact structures.
Abstract:
A method of forming an optoelectronic device and a silicon device on a single chip. The method may include; forming a stack of layers on a substrate in a first and second region, the stack of layers include a semiconductor layer, a first insulator layer, a waveguide, a second insulator layer, and a device base layer; forming the device on the device base layer in the second region; forming a device insulator layer on the device and on the device base layer in the second region; and forming the optoelectronic device in the first region, the optoelectronic device has a bottom cladding layer, an active region, and a top cladding layer, wherein the bottom cladding layer is on the semiconductor layer, the active region is on the bottom cladding layer, and the top cladding layer is on the active region.
Abstract:
A method of forming an optoelectronic device and a silicon device on a single chip. The method may include; forming a silicon substrate in a first and second region of a single chip; forming a germanium layer above the substrate in at least the first region; forming the optoelectronic device on the germanium layer in the first region, the optoelectronic device has a top cladding layer, a bottom cladding layer, and an active region, the bottom cladding layer is on the semiconductor layer, the active region is adjacent to a waveguide and on the bottom cladding layer, the top cladding layer is on the active region; and forming the silicon device on a silicon layer in the second region.
Abstract:
A semiconductor device includes a substrate including a front side and a back side opposite the front side, first P-type regions located adjacent to the back side and spaced apart from each other in the substrate, N-type regions located under the first P-type regions and spaced apart from each other in the substrate, and second P-type regions located adjacent to the back side and located between the first P-type regions.