mhurhangee/ep-ind-claims huggingface dataset:
An indoor unit for a ceiling-concealed air-conditioning apparatus, the indoor unit comprising: an indoor-unit body having an air inlet at a bottom; a decorative panel provided at the bottom of the indoor-unit body and serving as a design surface; and an inlet grille flap rotatably supported by the decorative panel and covering the air inlet, the inlet grille flap being provided with a rotational-axis hinge positioned on each of both sides at one edge of the inlet grille flap and serving as a rotational axis of the inlet grille flap, and a latch part positioned between the two rotational-axis hinges and projecting from the one edge, the decorative panel having a flange, wherein the latch is configured so that when the inlet grille flap is closed, the flange is positioned below the latch part and supporting the latch part from below, and when the inlet grille is open, in a side view, the position on the latch part where the flange supports the latch part from below when the inlet grille flap is closed is shifted in a vertical direction and in a horizontal direction from a position where the rotational-axis hinges reside and between the plurality of rotational-axis hinges. an indoor-unit body having an air inlet at a bottom; a decorative panel provided at the bottom of the indoor-unit body and serving as a design surface; and an inlet grille flap rotatably supported by the decorative panel and covering the air inlet, the inlet grille flap being provided with a rotational-axis hinge positioned on each of both sides at one edge of the inlet grille flap and serving as a rotational axis of the inlet grille flap, and a latch part positioned between the two rotational-axis hinges and projecting from the one edge, the decorative panel having a flange, wherein the latch is configured so that when the inlet grille flap is closed, the flange is positioned below the latch part and supporting the latch part from below, and when the inlet grille is open, in a side view, the position on the latch part where the flange supports the latch part from below when the inlet grille flap is closed is shifted in a vertical direction and in a horizontal direction from a position where the rotational-axis hinges reside and between the plurality of rotational-axis hinges.
A steering system comprising: a steering unit including a first actuator; a turning unit including a second actuator; and a backup mechanism configured to mechanically couple the steering unit and the turning unit, characterized in that a maximum torque that the first actuator is able to transmit to the second actuator via the backup mechanism is larger than or equal to a maximum torque that the second actuator is able to transmit to the first actuator via the backup mechanism. a steering unit including a first actuator; a turning unit including a second actuator; and a backup mechanism configured to mechanically couple the steering unit and the turning unit, characterized in that a maximum torque that the first actuator is able to transmit to the second actuator via the backup mechanism is larger than or equal to a maximum torque that the second actuator is able to transmit to the first actuator via the backup mechanism.
An amorphous natural silica composition having a median particle diameter of not greater than 20 microns, an oil absorption of not greater than 100% by weight, and a crystalline silica content of not greater than 1% by weight.
A management device comprising: a management table generation section adapted to generate a management table in which location information showing a present location of a relay device is held for each relay device for relaying communication data from a communication device to a first network, a first receiving section adapted to receive a location information showing a present location of the communication device from the communication device via a second network different from the first network, the communication device being connected to the first network via a relay device, a list generation section adapted to generate, with reference to the management table, based on the location information of the communication device, a candidate list showing relay device candidates for relaying communication data to the first network by communicating with the communication device, a transmission section adapted to transmit the candidate list to the communication device via the second network; and a request section adapted to request the location information of the communication device from the communication device via the second network according to a change in communication situation of the relay device communicating with the communication device, wherein the list generation section is adapted to newly generate the candidate list with reference to the management table based on the location information of the communication device that is received according to the request from the request section. a management table generation section adapted to generate a management table in which location information showing a present location of a relay device is held for each relay device for relaying communication data from a communication device to a first network, a first receiving section adapted to receive a location information showing a present location of the communication device from the communication device via a second network different from the first network, the communication device being connected to the first network via a relay device, a list generation section adapted to generate, with reference to the management table, based on the location information of the communication device, a candidate list showing relay device candidates for relaying communication data to the first network by communicating with the communication device, a transmission section adapted to transmit the candidate list to the communication device via the second network; and a request section adapted to request the location information of the communication device from the communication device via the second network according to a change in communication situation of the relay device communicating with the communication device, wherein the list generation section is adapted to newly generate the candidate list with reference to the management table based on the location information of the communication device that is received according to the request from the request section.
An effervescent tablet comprising (a) from 600 to 1000 mg of aspirin; and (b) from 1400 to 2000 mg of alkaline substances, wherein the aspirin and alkaline substances are contained in a single layer. (a) from 600 to 1000 mg of aspirin; and (b) from 1400 to 2000 mg of alkaline substances,
A system for treating a condition within a nasal cavity of a patient, the system comprising: a treatment device comprising a shaft and a multi-segment end effector extending from the shaft and for delivering energy to one or more target sites within the nasal cavity of the patient, the multi-segment end effector comprising a first segment and a separate second segment longitudinally spaced apart from the first segment, wherein each of the first and second segments (322, 324) is transformable between a retracted configuration and an expanded deployed configuration, and each of the first and second segments (322, 324) comprises a plurality of electrodes; and a controller operably associated with the treatment device and configured to: receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position. a treatment device comprising a shaft and a multi-segment end effector extending from the shaft and for delivering energy to one or more target sites within the nasal cavity of the patient, the multi-segment end effector comprising a first segment and a separate second segment longitudinally spaced apart from the first segment, wherein each of the first and second segments (322, 324) is transformable between a retracted configuration and an expanded deployed configuration, and each of the first and second segments (322, 324) comprises a plurality of electrodes; and a controller operably associated with the treatment device and configured to: receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position. receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position.
A computer-implemented image processing method comprising: receiving an input image having a first resolution and a degradation characteristic, wherein degradation refers to change or reduction in the quality or information content of an image; and generating an output image based on the input image using a neural network model, wherein the output image has a second resolution that is lower than the first resolution, and wherein the neural network model is configured to apply the degradation characteristic of the input image to the output image; wherein the generating of the output image comprises: estimating the degradation characteristic of the input image based on the input image; generating a temporary restored image having the second resolution by performing image downscaling and image restoration based on the input image; and applying the degradation characteristic to the temporary restored image; and characterized in that the neural network model comprises a combined model configured to estimate the degradation characteristic of the input image, generate the temporary restored image, and apply the degradation characteristic to the temporary restored image. receiving an input image having a first resolution and a degradation characteristic, wherein degradation refers to change or reduction in the quality or information content of an image; and generating an output image based on the input image using a neural network model, wherein the output image has a second resolution that is lower than the first resolution, and wherein the neural network model is configured to apply the degradation characteristic of the input image to the output image; wherein the generating of the output image comprises: estimating the degradation characteristic of the input image based on the input image; generating a temporary restored image having the second resolution by performing image downscaling and image restoration based on the input image; and applying the degradation characteristic to the temporary restored image; and characterized in that the neural network model comprises a combined model configured to estimate the degradation characteristic of the input image, generate the temporary restored image, and apply the degradation characteristic to the temporary restored image. estimating the degradation characteristic of the input image based on the input image; generating a temporary restored image having the second resolution by performing image downscaling and image restoration based on the input image; and applying the degradation characteristic to the temporary restored image; and characterized in that the neural network model comprises a combined model configured to estimate the degradation characteristic of the input image, generate the temporary restored image, and apply the degradation characteristic to the temporary restored image.
A process for producing a transportation fuel from a renewable feedstock, the process comprising: hydrotreating a feed stream comprising renewable feed stock and mineral feed stock in the presence of a hydrotreating hydrogen stream and a hydrotreating catalyst to desulfurize and deoxygenate said feed stream to provide a hydrotreated stream; separating the hydrotreated stream to provide a hydrotreated vapor stream and a hydrotreated liquid stream having less sulfur concentration and oxygen concentration than the feed stream; and hydroisomerizing the hydrotreated liquid stream over a hydroisomerization catalyst in the presence of a hydroisomerization hydrogen stream comprising less than 200 vppm carbon monoxide to provide a hydroisomerized stream. hydrotreating a feed stream comprising renewable feed stock and mineral feed stock in the presence of a hydrotreating hydrogen stream and a hydrotreating catalyst to desulfurize and deoxygenate said feed stream to provide a hydrotreated stream; separating the hydrotreated stream to provide a hydrotreated vapor stream and a hydrotreated liquid stream having less sulfur concentration and oxygen concentration than the feed stream; and hydroisomerizing the hydrotreated liquid stream over a hydroisomerization catalyst in the presence of a hydroisomerization hydrogen stream comprising less than 200 vppm carbon monoxide to provide a hydroisomerized stream.
An imaging apparatus comprising: a plurality of pixel circuits each including a photoelectric conversion element a sample hold circuit(M8,CS,M10;M11,CN,M13), an amplifier (M10;M13) for amplifying an electric signal held by the sample hold circuit (M8, CS;M11, CN), a reading switch (M9;M12) for transferring the electrical signal amplified by the amplifier (M10;M13) and a switch configured to supply a predetermined potential to the sample hold circuit (M8, CS, M11, CN); a plurality of signal lines (306, 307, 308, 309) configured to read electrical signals transferred by the reading switches (M9;M12); control means configured to perform a first control for transferring electrical signals in accordance with the predetermined potential supplied to the sample hold circuits (M8,CS;M11,CN) by the switches from the sample hold circuits (M8, CS; M11, CN) to the plurality of signal lines (306, 307, 308, 309) to thereby initialize the voltage of those signal lines, and a second control for sequentially transferring to the plurality of signal lines (306, 307, 308, 309) electrical signals held by the plurality of sample hold circuits (M8, CS; M11, CN) of the plurality of pixel circuits from a plurality of photoelectric conversion elements of the plurality of pixel circuits corresponding to light received by each of the plurality of photoelectric conversion elements, after the first control has been performed; and generation means configured to generate image data of a current frame based on electrical signals transferred to the plurality of signal lines by the second control. a plurality of pixel circuits each including a photoelectric conversion element a sample hold circuit(M8,CS,M10;M11,CN,M13), an amplifier (M10;M13) for amplifying an electric signal held by the sample hold circuit (M8, CS;M11, CN), a reading switch (M9;M12) for transferring the electrical signal amplified by the amplifier (M10;M13) and a switch configured to supply a predetermined potential to the sample hold circuit (M8, CS, M11, CN); a plurality of signal lines (306, 307, 308, 309) configured to read electrical signals transferred by the reading switches (M9;M12); control means configured to perform a first control for transferring electrical signals in accordance with the predetermined potential supplied to the sample hold circuits (M8,CS;M11,CN) by the switches from the sample hold circuits (M8, CS; M11, CN) to the plurality of signal lines (306, 307, 308, 309) to thereby initialize the voltage of those signal lines, and a second control for sequentially transferring to the plurality of signal lines (306, 307, 308, 309) electrical signals held by the plurality of sample hold circuits (M8, CS; M11, CN) of the plurality of pixel circuits from a plurality of photoelectric conversion elements of the plurality of pixel circuits corresponding to light received by each of the plurality of photoelectric conversion elements, after the first control has been performed; and generation means configured to generate image data of a current frame based on electrical signals transferred to the plurality of signal lines by the second control.
A needle stroke switch for a fuel injector comprising: a seat plate having a plate-like base body and a passage connecting the two areal sides of the plate-like base body; an armature element that can be raised from the passage of the seat plate and can be sealingly placed thereon; and a control valve that is arranged at the side of the seat plate oppositely disposed the armature element and that is adapted to cooperate with a nozzle needle, wherein the seat plate is electrically insulated with respect to an injector casing surrounding it; and wherein an electrical connection to the injector casing can only be implemented via the nozzle needle cooperating with the seat plate, characterized by at least one ceramic and/or plastic part (3, 4, 5) contacting the seat plate to generate the insulation of the seat plate with respect to the injector casing surrounding it. a seat plate having a plate-like base body and a passage connecting the two areal sides of the plate-like base body; an armature element that can be raised from the passage of the seat plate and can be sealingly placed thereon; and a control valve that is arranged at the side of the seat plate oppositely disposed the armature element and that is adapted to cooperate with a nozzle needle, wherein the seat plate is electrically insulated with respect to an injector casing surrounding it; and wherein an electrical connection to the injector casing can only be implemented via the nozzle needle cooperating with the seat plate, characterized by at least one ceramic and/or plastic part (3, 4, 5) contacting the seat plate to generate the insulation of the seat plate with respect to the injector casing surrounding it.
Process for producing a hydroxy compound of the formula in which R is a linear or branched alkyl group having 1 to 6 carbon atoms, n is 1 or 2, and m is 0, 1, 2, or 3, by decarboxylation of a carboxylic acid compound of the formula or of a corresponding salt of said carboxylic acid compound of the formula in which R, n, and m are as defined above, using at least one heterogeneous catalyst, characterized in that at least one hydroxy compound of the formula is throughout the decarboxylation reaction present in a stoichiometric excess relative to the carboxylic acid compound of the formula, the decarboxylation being carried out at a temperature that is above the melting temperature both of the hydroxy compound of the formula that is formed and of the at least one hydroxy compound of the formula used in a stoichiometric excess. R is a linear or branched alkyl group having 1 to 6 carbon atoms, n is 1 or 2, and m is 0, 1, 2, or 3, by decarboxylation of a carboxylic acid compound of the formula or of a corresponding salt of said carboxylic acid compound of the formula in which R, n, and m are as defined above, using at least one heterogeneous catalyst, characterized in that at least one hydroxy compound of the formula is throughout the decarboxylation reaction present in a stoichiometric excess relative to the carboxylic acid compound of the formula, the decarboxylation being carried out at a temperature that is above the melting temperature both of the hydroxy compound of the formula that is formed and of the at least one hydroxy compound of the formula used in a stoichiometric excess. in which R, n, and m are as defined above, using at least one heterogeneous catalyst, characterized in that at least one hydroxy compound of the formula is throughout the decarboxylation reaction present in a stoichiometric excess relative to the carboxylic acid compound of the formula, the decarboxylation being carried out at a temperature that is above the melting temperature both of the hydroxy compound of the formula that is formed and of the at least one hydroxy compound of the formula used in a stoichiometric excess.
A liquid crystal display comprising: a first substrate including a plurality of gate lines, and a plurality of data lines intersecting the plurality of gate lines; a second substrate that faces the first substrate and includes a plurality of color filters; a power supply unit that supplies power to a light source; power supply lines formed on the first substrate and electrically connected to the power supply unit; a flexible printed circuit board electrically connected to the power supply lines; a data driver that applies data signals to the plurality of data lines; and a gate driver (400; 460) that applies gate signals to the plurality of gate lines; characterized in that the data driver includes: a data driving integrated circuit that generates data signals; a printed circuit board having the power supply unit mounted thereon; and a film that electrically connects the printed circuit board and the first substrate and includes the data driving IC mounted thereon. a first substrate including a plurality of gate lines, and a plurality of data lines intersecting the plurality of gate lines; a second substrate that faces the first substrate and includes a plurality of color filters; a power supply unit that supplies power to a light source; power supply lines formed on the first substrate and electrically connected to the power supply unit; a flexible printed circuit board electrically connected to the power supply lines; a data driver that applies data signals to the plurality of data lines; and a gate driver (400; 460) that applies gate signals to the plurality of gate lines; characterized in that the data driver includes: a data driving integrated circuit that generates data signals; a printed circuit board having the power supply unit mounted thereon; and a film that electrically connects the printed circuit board and the first substrate and includes the data driving IC mounted thereon. a data driving integrated circuit that generates data signals; a printed circuit board having the power supply unit mounted thereon; and a film that electrically connects the printed circuit board and the first substrate and includes the data driving IC mounted thereon.