Abstract:
A stamp for patterning onto a receiving surface (103) of an object (101) according to a defined pattern (P) comprises a stamping surface (21) of a resilient diaphragm (20). The stamping surface (21) is planar at rest. The pattern (P) is reproduced on the stamping surface (21) and the diaphragm (20) is affixed to a rigid body (13) along a peripheral edge, so that a middle part of the diaphragm (20) can move along a direction perpendicular to the stamping surface (21). The diaphragm (20) is more flexible near the peripheral edge than in the middle part. Then, the pattern (P) printed on a pseudo-spherical receiving surface (103) using the stamp exhibits few distortion.
Abstract:
A stamp for patterning onto a receiving surface (103) of an object (101) according to a defined pattern (P) comprises a stamping surface (21) of a resilient diaphragm (20). The stamping surface (21) is planar at rest. The pattern (P) is reproduced on the stamping surface (21) and the diaphragm (20) is affixed to a rigid body (13) along a peripheral edge, so that a middle part of the diaphragm (20) can move along a direction perpendicular to the stamping surface (21). The diaphragm (20) is more flexible near the peripheral edge than in the middle part. Then, the pattern (P) printed on a pseudo-spherical receiving surface (103) using the stamp exhibits few distortion.
Abstract:
An electronic circuit device is provided, comprising a combined optical transmission and cooling fluid conduit network (100), wherein the network comprises at least one cooling conduit (101-103) that comprises an optical transmission medium (60), the network configured to convey a cooling fluid (50) via said at least one cooling conduit and an electromagnetic signal (70) via said optical transmission medium, such that the network is arranged in thermal communication with a first set of one or more components (11-15) of the electronic circuit device and in signal communication with a second set of one or more components (10-12a) of the electronic circuit device, and the first set and second set of component are at least partly overlapping. The corresponding method for conveying optical signal in such an electronic circuit device is also provided.
Abstract:
The invention is notably directed to a photovoltaic thermal hybrid solar receiver (20), comprising: a photovoltaic module (21) and a thermal collector (22). The latter extends in a first plane (220); it comprises an aperture (68). The photovoltaic module (21) is designed for electrical output power (Po) delivery; it comprises a photo-active area (212) that extends in a second plane (210) at a distance (232) from the first plane (220). The photo-active area is located vis-à-vis the aperture, i.e., a projection of the aperture perpendicularly to the second plane corresponds to the photo-active area.
Abstract:
PROBLEM TO BE SOLVED: To provide a collision cooling device which is in contact with a microprocessor. SOLUTION: This invention includes a cooling device comprising parallel return paths and having a lot of collision injection ports closely arranged with spaces adjacent to a collision gap 42. This invention also includes a method for, by using branching hierarchy manifolds alternatively engaged, supplying a cooling agent flow to the collision injection ports with less pressure drop as much as possible. Further, a surface extension structure extending to the collision gap 42 forms a U-shaped micro channel between a single collision injection port and a single exit. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
The invention is notably directed to a photovoltaic thermal hybrid solar receiver (20), comprising: a photovoltaic module (21) and a thermal collector (22). The latter extends in a first plane (220); it comprises an aperture (68). The photovoltaic module (21) is designed for electrical output power (Po) delivery; it comprises a photo-active area (212) that extends in a second plane (210) at a distance (232) from the first plane (220). The photo-active area is located vis-à-vis the aperture, i.e., a projection of the aperture perpendicularly to the second plane corresponds to the photo-active area.
Abstract:
The invention is notably directed to methods of operating photovoltaic thermal hybrid systems (10). A such system (10) comprises: a hybrid solar receiver (20), having a photovoltaic module (21), operatively coupled to the system to deliver an electrical output power (P0) for a power user; and a thermal collector (22) distinct from the photovoltaic module. The photovoltaic module and/or the thermal collector are movably mounted in the system. The system further comprises a collector thermal storage (42) thermally connected to the thermal collector to store heat collected at the thermal collector; and positioning means (30) adapted to move the photovoltaic module and/or the thermal collector. The method comprises instructing (S30) the positioning means to move the photovoltaic module and/or the thermal collector to change a ratio of an intensity of radiation received (S10) at the photovoltaic module to an intensity of radiation received (S10) at the thermal collector.
Abstract:
PROBLEM TO BE SOLVED: To provide a method for multi-color printing in a single step without the necessity to register a position. SOLUTION: This printing method performs a printing work by applying the process to selectively fill microcontainers of an elastic stamp with color inks to a single printing master. In addition, the method comprises the steps of sequentially filling stamp hollows with a color ink (1040) selected for printing through a plurality of rollers of different colors (941) covered with a lid layer (1010) having an opening part at a position which is aligned to an appropriate stamp hollow, and bringing a stamp face into contact with the surfaces of printing media (96 and 1060), tightly fitted to a surface shape under an outer force and the elastic force of a stamp layer and simultaneously sealing the periphery of openings of the stamp hollows and limiting the transfer of a color ink to the printing media (96 and 1060) to the medium part coming into contact with the hollow openings. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a fine structure by etching a substrate having a region covered with self-assembly monomolecule(SAM). SOLUTION: A wet etching system for selectively forming a pattern on the substrate having the region covered with SAM and controlling an etching profile, includes (a) a fluid etching solution, and (b) additives having higher affinity for the region covered with the SAM than for the other region. The method for selectively forming the pattern on the substrate having the region covered with the SAM and controlling the etching profile, includes (a) a step of providing a fluid etching solution, (b) a step of adding the additives having the higher affinity for the region covered with SAM than for the other region to the above etching solution, and (c) a step of etching the above substrate with the above fluid etching solution containing the above additives.
Abstract:
PROBLEM TO BE SOLVED: To provide a method of forming pattern, a semiconductor device and a metal conductive pattern. SOLUTION: A method of forming pattern includes the steps of: preparing a substrate; (202) forming an insulating layer having OH functional groups on a surface of the insulating layer; (203) forming a patterned polymer layer on the insulating layer; patterning the polymer layer by etching the insulating layer; exposing the insulating layer by peeling off (205) the polymer layer; and (207) selectively depositing conductive materials on the insulating layer. COPYRIGHT: (C)2003,JPO