A semiconductor device has a layered structure. The semiconductor device includes a metallic layer of thickness 1-100 nm, with a thickness optimized to absorb light in a wavelength range of operation. The device further includes an adjacent semiconductor layer additionally adjacent to an ohmic electrical contact, wherein the interface between the metallic layer and the semiconductor layer is electrically rectifying and energy selective. The device further includes a reflective back surface positioned opposite to the semiconductor layer relative to incident light providing broadband reflection in the wavelength range of operation. The semiconductor layer includes a quantum well adjacent to the metallic layer, wherein the energy selectivity is provided by the quantum well allowing charge carrier tunneling from the metallic layer. The device further may include an additional anti-reflection dielectric layer deposited on the metallic layer that is configured to minimize reflection of light in the wavelength range of operation.

Disclosed is an integrated circuit (IC) chip incorporating a temperature-sensitive element and temperature stabilization circuitry for ensuring that the temperature of the temperature-sensitive element (TSE) remains essentially constant. The IC chip comprises a temperature-sensitive element and, within at least one region adjacent to the temperature-sensitive element, a first circuit that radiates a first heat amount to the TSE and a second circuit that radiates a second heat amount to the TSE. The second circuit senses changes in a first current amount in the first circuit and, thereby changes in the first heat amount. In response to those changes, the second circuit also automatically adjusts a second current amount in the second circuit and, thereby the second heat amount in order to ensure that the total heat amount radiated by the first circuit and the second circuit, in combination, to the TSE remains constant. Also disclosed is an associated method.

An improved solar charger that may configured for direct coupling to a plurality of portable electronic devices. The improved solar charger is particularized to match or fall within intended electronic devices charging voltage and amperage requirements and contains a port identification mechanism to enable and facilitate fast charging modes without the use of an internal battery or ancillary electronic circuit boards. More specifically, the solar power charger incorporates a variety of features that make the design rugged, compact, waterproof, and durable.

A container for solar string transportation includes, on the inside of a solar-string storing section, a long-side side plate, and a short-side side plate, and has an upper opening of the solar-string storing section for loading and unloading, and a pair of solar-string lifting/lowering devices along the inner wall of the long-side side plate. The solar-string lifting/lowering device includes a driving gear section set on the bottom plate side, an endless chain member that revolves around a direction changing gear section set on the upper opening side, a plurality of solar-string placing devices fixed to the endless chain member and including, on the outer side thereof, a projecting section for placing the lower surface of an end edge of the solar string, and a shock absorbing member fixed to the back of the solar-string placing devices. The shock absorbing member holds the end edge upper surface of the solar string.

The disclosure describes various stackable corner protector configurations. The corner protectors can have curved lateral surfaces that allow the corner protectors to be decoupled from a photovoltaic module to which they are coupled to by rotating one end of the corner protectors away from the object. This removal process works even more efficiently with multiple stacked corner protectors as the stacked corner protectors can be concurrently removed from the object by rotating the stacked corner protectors away from the object together. The corner protector can also include one or more attachment features for securing the corner protector to the object. For example, when the corner protector is installed on a photovoltaic module, the attachment feature can engage a lip defined by a recess or channel of the photovoltaic module.

A concentrator photovoltaic is formed by concentrator photovoltaic panels each having solar cells arranged on the back side of concentrating lenses. A plurality of portions of an image are imaged at the periphery of each of the solar cells in each of the panels. When each of the panels tracks the sun to be swung in the right-left direction and in the up-down direction, an image which can be identified through the concentrating lenses by a person who sees the image from a position in front of the concentrator photovoltaic is different according to an angle at which the panel is swung (direction rotation angle and elevation angle) due to the characteristic of the concentrating lenses. Therefore, the image of a letter or the like which appears with movement of the sun can be changed, and a message or the like according to time thereof can be displayed.

A network of photovoltaic strips positioned in front of an image causes a decrease in the luminosity of said image, which is not uniform for all of the colours and causes an optical moir phenomenon that is perceived by the observer when they change their viewing angle. In order to rectify said decrease in visual quality of the image, the invention describes a suitable positioning and dimension of the photovoltaic strips in relation to the inter-pixels of the image.

An optical apparatus includes: a semiconductor optical device integrating an optical coupler, an optical element, and an electrical circuit; and a printed circuit board including a main body and a metal piece. The body has first and second openings. The first opening, the metal piece and the second opening are arranged in a direction of a first axis. The first and second openings extend from the front and back faces of the body along the direction to the first and second faces of the metal piece, respectively. The metal piece is supported by the body. The semiconductor optical device is mounted on the first face of the metal piece in the first opening. The body has a supporting face connecting the first side of the first opening with the second side of the second opening and supporting the second face of the metal piece in the first opening.

The present invention relates to a laminate and a device fabricated using the laminate. The laminate includes a debonding layer including a polyimide resin having a similarity score not greater than 0.5, as calculated by Equation 1 defined in the detailed description, between a carrier substrate and a flexible substrate. According to the present invention, the flexible substrate can be easily separated from the carrier substrate without the need for further processing such as laser or light irradiation. Therefore, the use of the laminate facilitates the fabrication of the device having the flexible substrate. The device may be, for example, a flexible display device. In addition, the device can be prevented from deterioration of reliability and occurrence of defects caused by laser or light irradiation. This ensures improved characteristics and high reliability of the device.

This solar cell module (1) comprises a plurality of solar cell arrays (11). Each solar cell array (11) includes a plurality of spherical semiconductor elements (20) arranged in a row, at least a pair of bypass diodes (40), and a pair of lead members (14) that connect the plurality of spherical semiconductor elements (20) and the plurality of bypass diodes (40) in parallel. Each of the lead members (14) includes one or plural lead strings (15) to which the plurality of spherical semiconductor elements (20) are electrically connected and having a width less than or equal to the radius of the spherical semiconductor element (20), and plural lead pieces (16) formed integrally with the lead strings (15) at least at both end portions of the lead member (14), on which the bypass diodes (40) are electrically connected in reverse parallel to the spherical semiconductor elements (20), and having width larger than or equal to the width of the bypass diodes (40).