Patent application number | Description | Published |
20090004525 | Ion-Dissociative Functional Compound, Method for Production Thereof, Ionic Conductor, and Electrochemical Device - Disclosed herein are an ion-dissociative functional compound, a method for production thereof, an ionic conductor, and an electrochemical device, the ion-dissociative functional compound being thermally and chemically stable under the condition required of fuel cells and being suitable for use as a material such as protonic conductor in fuel cells. | 01-01-2009 |
20090078315 | ELECTRODE, METHOD OF MAKING SAME, PHOTOELECTRIC TRANSFER ELEMENT, METHOD OF MANUFACTURING SAME, ELECTRONIC DEVICE AND METHOD OF MANUFACTURING SAME - An electrode is composed of a carbon carrying a metal and a binder polymer, and it is used as a counter electrode of a dye-sensitized solar cell. The metal carried by carbon is at least one kind of metal selected from the group consisting of Pt, Ru, Co, Ti, Ni, Al and Au. The carbon is needle-like carbon, fullerene, carbon nanotube, conductive carbon black, or the like, and its specific surface area is equal to or larger than 100 m | 03-26-2009 |
20100024877 | METHOD OF PREPARING A POROUS SEMICONDUCTOR FILM ON A SUBSTRATE - A method of preparing a porous semiconductor film on a substrate comprising the steps: a) preparing, on a first substrate, an adhesion layer capable of providing electrical and mechanical contact between a porous semiconductor layer attached to said adhesion layer and said first substrate, b) applying on a second substrate that is capable of withstanding temperatures >=300° C. a spacer layer and applying a porous semiconductor layer on said spacer layer, c) applying an assisting layer on said porous semiconductor layer, said assisting layer providing support for said porous semiconductor layer, d) removing said spacer layer e) transferring said porous semiconductor layer supported by said assisting layer onto said ashesion layer, f) pressing said porous semiconductor layer onto said adhesion layer, g) removing said assisting layer from said porous semiconductor layer, thereby obtaining said first substrate having as a porous semiconductor film said porous semiconductor layer attached thereon by way of said adhesion layer. | 02-04-2010 |
20110083719 | ELECTRONIC DEVICE - The present invention relates to an electronic device configured to make use of features in terms of design quality and flexibility of a dye-sensitized solar cell. A solar cell-cum-display unit | 04-14-2011 |
20110155223 | DYE-SENSITIZED SOLAR CELL AND A METHOD OF MANUFACTURING THE SAME - The present invention provides a dye-sensitized solar cell which can obtain a high photoelectric conversion efficiency, which can be manufactured at a low cost, and which is superior in a design property, and a method of manufacturing the same. Dye supporting porous titanium oxide layers | 06-30-2011 |
20110171536 | Electrochemical Device - A cathode ( | 07-14-2011 |
20120119097 | RADIOGRAPHIC IMAGING DEVICE AND RADIOGRAPHIC IMAGING SYSTEM - There is provided a radiographic imaging device including: an imaging panel at which sensor portions, that detect radiation or light converted from radiation, are formed at a detection region, and that captures a radiographic image expressed by radiation or light converted from radiation; a light illuminating section at which light-emitting portions, that can individually illuminate light for erasing residual images, are provided per sectional region obtained by dividing the detection region into the sectional regions; a storage section that stores imaging actual results information that expresses past actual results of imaging carried out by the imaging panel; and a control section that, in accordance with at least one of actual results of imaging and imaging conditions, controls absence/presence of illumination of, light amount of, and illumination time period of light from the respective light-emitting portions of the light illuminating section. | 05-17-2012 |
20120241627 | RADIOLOGICAL IMAGE DETECTION APPARATUS AND METHOD OF MANUFACTURING THE SAME - A radiological image detection apparatus includes: a radiation image conversion panel including: a phosphor having a group of columnar crystals in which crystals of the fluorescent material have grown into columnar shape, the fluorescent material which emits fluorescent light when exposed to radiation and a protective film which covers at least a fluorescent light emission surface of the phosphor, a surface of the protective film being subjected to plasma processing; a sensor panel detecting the fluorescent light emitted from the phosphor; and an adhesive layer which is sandwiched between the protective film and a photodetecting surface of the sensor panel and with which the radiation image conversion panel and the sensor panel are bonded to each other, a thickness of the adhesive layer being in a range of 10 to 40 μm. | 09-27-2012 |
20130280617 | GEL ELECTRODE SECONDARY CELL - A gel electrolyte secondary cell in which discharge capacity loss can be suppressed even with the use of a graphitized carbonaceous material of a small particle size as a negative electrode material to assure low impedance, superior cell voltage and load characteristics and high charging/discharging efficiency. To this end, a graphitized carbonaceous material prepared by firing meso-carbon micro-beads is used as a material for a negative electrode. | 10-24-2013 |
20140162134 | GEL ELECTRODE SECONDARY CELL - A gel electrolyte secondary cell includes a positive electrode, a negative electrode and a gel electrolyte. The negative electrode includes a current collector, and a mixture of powders of a graphite carbonaceous material and a binder. The powders of the graphite carbonaceous material include sintered meso-carbon micro-beads. The gel electrolyte includes an electrolyte salt, a non-aqueous solvent and a high-molecular weight material. The non-aqueous solvent includes propylene carbonate and ethylene carbonate. A content of propylene carbonate ranges from 35 mol % to 75 mol %. The binder is in an amount 1 to 20 wt % based on total weight of the powders of the graphite carbonaceous material. The meso-carbon micro-beads can suitably decrease the impedance and the discharge capacity loss, thereby increasing the discharging capacity and/or charging/discharging efficiency of the gel electrolyte secondary cell. | 06-12-2014 |
Patent application number | Description | Published |
20080230710 | RADIATION DETECTOR AND METHOD FOR PRODUCING PHOTOCONDUCTIVE LAYER FOR RECORDING THEREOF - In a radiation detector, electrodes are provided on both sides of a photoconductive layer for recording. When the photoconductive layer for recording is irradiated with radiation during application of a predetermined bias voltage between the electrodes, electric charges are generated within the photoconductive layer for recording. Then, the generated electric charges are detected as an electric signal by the radiation detector. As the material for the photoconductive layer for recording, amorphous selenium having a coordination number of 1.95±0.02 is used. | 09-25-2008 |
20120112075 | RADIATION DETECTOR - There is provided a radiation detector including: a support body; a scintillator layer that is deposited further to the inside than outside edges of the support body and that converts incident radiation into light; a photo detector plate that converts light emitted from the scintillator layer into charge and has a different linear expansion coefficient to that of the support body, the photo detector plate being adhered to the scintillator layer so as to form a gap between the photo detector plate and the support body; and a sealing layer of a resilient body that is poured into the gap and that covers a side face of the scintillator layer, such that a film thickness at the center portion of the sealing layer is thinner than a film thickness of the sealing layer at the support body side edges and at the photo detector plate side edges. | 05-10-2012 |
20120126129 | RADIOGRAPHIC IMAGE CAPTURING APPARATUS - A radiographic image capturing apparatus includes a photodetector substrate, a scintillator, a switching filter, and a resetting light source, which are arranged successively in this order. If the switching filter is made permeable to resetting light from the resetting light source, the switching filter allows resetting light to be applied to the photodetector substrate through the scintillator, whereas, if the switching filter is made impermeable to the resetting light, the switching filter reflects at least a fluorescence, which is converted from radiation by the scintillator, toward the photodetector substrate. | 05-24-2012 |
Patent application number | Description | Published |
20120283895 | COLLISION PROBABILITY CALCULATION APPARATUS FOR VEHICLE AND COLLISION AVOIDANCE SYSTEM USING THE SAME - A collision probability calculation apparatus capable of accurately calculating a collision probability that one's own vehicle will collide with an object around the own vehicle (referred to as a nearby object). In the apparatus, a position of the nearby object and a traveling speed and a traveling direction of the own vehicle are acquired. A collision probability map is generated on the basis of the traveling speed and traveling direction of the own vehicle. A width of a traveling lane of the own vehicle is acquired and the map is corrected in response to the width of the traveling lane. Thereafter, a collision probability associated with the position of the nearby object is corrected in response to the position of the nearby object. The corrected collision probability is outputted as a more accurate collision probability that the own vehicle will collide with the nearby object. | 11-08-2012 |
20140218228 | TARGET RECOGNITION APPARATUS - In a target recognition apparatus, a candidate detection section detects a target candidate, provided that a target exists in a basic detection area. A candidate addition section adds, regarding each target candidate detected in a folding area, a target candidate determined provided that the target candidate detected in the folding area is a virtual image, and a corresponding real image exists in an additional detection area. A tracking section determines, regarding each detected and added target candidate, presence/absence of a history connection with the target candidate detected in a past measurement cycle. A combination determination section determines, regarding each target candidate, presence/absence of a combination with an image target, based on whether or not an image target associated with the target candidate exists. A likelihood calculation section sets and updates a likelihood of a virtual image of the image target by using a determination result of the combination determination section. | 08-07-2014 |