Abstract:
A photodetector includes a substrate, an interdigital electrode layer and a photoactive layer. The interdigital electrode layer is located or sandwiched between the substrate and the photoactive layer. The interdigital electrode layer includes a first interdigital electrode and a second interdigital electrode. The first interdigital electrode and the second interdigital electrode are spaced from and staggered with each other.
Abstract:
An embedded touch panel (100) having a high resistance film (70) comprises a sequentially stacked first substrate (10), thin-film transistor substrate (20), liquid crystal layer (30), color filter (40), touch sensing layer (50), second substrate (60), and the high resistance film (70). A plurality of mutually insulated sensing wires are disposed on a surface of the thin-film transistor substrate (20) facing toward the liquid crystal layer (30). The thin-film transistor substrate (20) and the touch sensing layer (50) work together to embed a functionality of a touch panel into liquid crystal pixels, reducing a thickness of the touch panel (100). The high resistance film (70) is disposed on a surface of the second substrate (60) facing away from the touch sensing layer (50), and is electrically connected to the thin-film transistor substrate (20).
Abstract:
A bi-facial tandem solar cell and a method of making a non-toxic perovskite/inorganic thin-film tandem solar cell stable, having matching bandgaps and a hysteresis free design including the steps of depositing a textured oxide buffer layer on an inexpensive substrate, depositing a metal-inorganic film from a eutectic alloy on the buffer layer; and depositing perovskite elements on the metal-inorganic film, thus forming a perovskite layer based on a metal from the metal-inorganic film, incorporating the metal into the perovskite layer wherein said perovskite layer is stable, hysteresis-free, and has a bandgap that matches the bandgap of the metal-inorganic.
Abstract:
The present invention relates to a method for producing a flexible substrate. According to the method of the present invention, a flexible substrate layer can be easily separated from a carrier substrate even without the need for laser or light irradiation so that a device can be prevented from deterioration of reliability and occurrence of defects caused by laser or light irradiation. In addition, according to the method of the present invention, a flexible substrate can be continuously produced in an easier manner based on a roll-to-roll process.
Abstract:
Method of making a current collecting grid for solar cells, including the steps of a) providing a continuous layer stack (1) on a substrate (8), the layer stack (1) including an upper (2) and a lower (3) conductive layer having a photoactive layer (4) interposed there between; b) selectively removing the upper conductive layer (2) and the photoactive layer (4) for obtaining a first contact hole (10) extending through the upper conductive layer (2) and photoactive layer (4) exposing the lower conductive layer (3); c) printing a front contact body (4) on the upper conductive layer (2) and a back contact body (5) in the first contact hole (10) on the lower conductive layer (3) and forming an electrically insulating first gap surrounding the back contact body (5) between the upper conductive layer (2) and the back contact body (2).
Abstract:
Systems and methods for transparent organic photovoltaic devices are provided. In one embodiment, an organic semiconductor device comprises: a first glass sheet comprising a first ultra-thin flexible glass material; at least one transparent organic photovoltaic cell bound to the first glass sheet; and a second glass sheet applied to the at least one organic photovoltaic cell, wherein the at least one transparent organic photovoltaic cell is positioned between the first glass sheet and the second glass sheet.
Abstract:
An electrical contact structure (10) for a semiconductor component (100) is specified, comprising a transparent electrically conductive contact layer (1), on which a first metallic contact layer (2) is applied, a second metallic contact layer (3), which completely covers the first metallic contact layer (2), and a separating layer (4), which is arranged between the transparent electrically conductive contact layer (1) and the second metallic contact layer (3) and which separates the second metallic contact layer (3) from the transparent electrically conductive contact layer (1).Furthermore, a semiconductor component (100) comprising a contact structure (10) is specified.
Abstract:
An image pickup device includes: a first electrode film; an organic photoelectric conversion film; a second electrode film; and a metal wiring film electrically connected to the second electrode film, the first electrode film, the organic photoelectric conversion film, and the second electrode film all provided on a substrate in this order, and the metal wiring film coating an entire side of the organic photoelectric conversion film.
Abstract:
An oxide layer (2) of tin or niobium is formed on one surface of a carbon nanotube-containing layer (1) containing carbon nanotubes having an average diameter (Av) and a diameter standard deviation (σ) that satisfy a relationship 0.60>3σ/Av>0.20.
Abstract:
An electrode arrangement and plurality of micro-structures are presented configured for use in conversion of a surface to photovoltaic cell. The electrode arrangements comprising at least two sets of conducting wires comprising wires with coatings configured to allow selective transmission of charge carriers. The wires are configured for charge collection from a medium in surroundings thereof. The sets of conducting wires are arranged in the form of a grid such that the different wires overlay about one another defining a region of charge collection, and are insulated from one another in said region of charge collection.