mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus including an operation device coupled to the image forming apparatus and configured to accept an operation to the image forming apparatus, the image forming apparatus comprising: an application installer configured to install a new application on the image forming apparatus; a first storage unit (FN1, 214) configured to be shared by a plurality of applications including the new application installed on the image-forming apparatus, the plurality of applications comprising an application selected from the group consisting of a copier application, a facsimile application, a printer application, and a scanner application, the first storage unit (FN1, 214) being further configured to store a set value set by and to be used by the new application installed on the image forming apparatus or the operation device; a setting unit (FN2, 215) configured to accept an operation of writing or reading the set value; a determination unit (FN3, 211) configured to determine a storage destination of the set value based on flag data associated with a read request or a write request of the set value; and an application unit (FN5, 211) configured to perform a process in accordance with a determination result by the determination unit, to encrypt the set value and store the encrypted set value in the first storage unit (FN1, 214), write the set value to a second storage unit (FN4, 214), or read the set value from the second storage unit (FN4, 214). an application installer configured to install a new application on the image forming apparatus; a first storage unit (FN1, 214) configured to be shared by a plurality of applications including the new application installed on the image-forming apparatus, the plurality of applications comprising an application selected from the group consisting of a copier application, a facsimile application, a printer application, and a scanner application, the first storage unit (FN1, 214) being further configured to store a set value set by and to be used by the new application installed on the image forming apparatus or the operation device; a setting unit (FN2, 215) configured to accept an operation of writing or reading the set value; a determination unit (FN3, 211) configured to determine a storage destination of the set value based on flag data associated with a read request or a write request of the set value; and an application unit (FN5, 211) configured to perform a process in accordance with a determination result by the determination unit, to encrypt the set value and store the encrypted set value in the first storage unit (FN1, 214), write the set value to a second storage unit (FN4, 214), or read the set value from the second storage unit (FN4, 214).
A computer-implemented method for assigning identifiers to geographic locations within digital map data, comprising: selecting a region (100, 110, 400) within the map data; dividing the region (100, 110, 400) into a first plurality of cells (121, 122, 123); assigning a unique identifier of a first length to each cell of the first plurality of cells; selecting a portion (131, 132, 133, 410, 420, 510) of the region (100, 110, 400); and dividing the portion (131, 132, 133, 410, 420, 510) into a second plurality of cells; assigning a unique identifier of a second length to each cell of the second plurality of cells, wherein the second length is shorter than the first length, and wherein geographic locations within the portion of the region may be identified by an identifier of the first length or an identifier of the second length; characterised in that selecting the portion (131, 132, 133, 410, 420, 510) of the region (100, 110, 400) is based upon population density, such that the portion (131, 132, 133, 410, 420, 510) of the region (131, 132, 133, 400) has a greater population density than the region (131, 132, 133, 400). selecting a region (100, 110, 400) within the map data; dividing the region (100, 110, 400) into a first plurality of cells (121, 122, 123); assigning a unique identifier of a first length to each cell of the first plurality of cells; selecting a portion (131, 132, 133, 410, 420, 510) of the region (100, 110, 400); and dividing the portion (131, 132, 133, 410, 420, 510) into a second plurality of cells; assigning a unique identifier of a second length to each cell of the second plurality of cells, wherein the second length is shorter than the first length, and wherein geographic locations within the portion of the region may be identified by an identifier of the first length or an identifier of the second length; characterised in that selecting the portion (131, 132, 133, 410, 420, 510) of the region (100, 110, 400) is based upon population density, such that the portion (131, 132, 133, 410, 420, 510) of the region (131, 132, 133, 400) has a greater population density than the region (131, 132, 133, 400).
Film material as a manipulation-proof transponder antenna configuration, having a carrier substrate, a transponder antenna, optionally a chip, and an adhesive coating, characterized in that the configuration has, on a carrier substrate, the following layers: a) a thin, UV-curing lacquer layer, embossed in which is a hologram, b) partial metallization as a mirror layer, c) a smoothing lacquer layer, d) a partial copper layer which forms the antenna, e) a strap or microchip which is in direct contact with the antenna or applied to the side of layer a) which is opposite layer b), f) an adhesive coating. a) a thin, UV-curing lacquer layer, embossed in which is a hologram, b) partial metallization as a mirror layer, c) a smoothing lacquer layer, d) a partial copper layer which forms the antenna, e) a strap or microchip which is in direct contact with the antenna or applied to the side of layer a) which is opposite layer b), f) an adhesive coating.
A treatment process for wastewater comprising a chemical oxygen demand concentration and a total dissolved solids concentration of 10 to 200 g/L therein, the process comprising: a) subjecting the wastewater to wet air oxidation to remove an amount of COD from the wastewater and generate a first treated stream comprising a first reduced COD concentration and the TDS concentration of 10 to 200 g/L; (b) subjecting the first treated stream to a biological process in a bioreactor comprising an amount of biomass and powdered activated carbon therein, wherein the biological process generates a second treated stream comprising at least a second reduced COD concentration, wherein a weight ratio of the powdered activated carbon to biomass in the bioreactor is from 3:1 ± 1% to 5:1 ± 1%. a) subjecting the wastewater to wet air oxidation to remove an amount of COD from the wastewater and generate a first treated stream comprising a first reduced COD concentration and the TDS concentration of 10 to 200 g/L; (b) subjecting the first treated stream to a biological process in a bioreactor comprising an amount of biomass and powdered activated carbon therein, wherein the biological process generates a second treated stream comprising at least a second reduced COD concentration, wherein a weight ratio of the powdered activated carbon to biomass in the bioreactor is from 3:1 ± 1% to 5:1 ± 1%.
A process for the preparation of a compound of formula comprising heating a compound of formula in the presence of a catalyst and a base in a solvent at elevated temperature, wherein m1 is 0, 1, or 2, m2 is 0, 1 or 2, X 1 is Cl, Br, or I, and R 1 and R 2 are independently of each other C 1 -C 25 alkyl, C 1 -C 25 alkoxy, benzyloxy, Br, Cl, or F, preferably C 1 -C 8 alkyl, C 1 -C 8 alkoxy, Br, Cl, or F. m1 is 0, 1, or 2, m2 is 0, 1 or 2, X 1 is Cl, Br, or I, and R 1 and R 2 are independently of each other C 1 -C 25 alkyl, C 1 -C 25 alkoxy, benzyloxy, Br, Cl, or F, preferably C 1 -C 8 alkyl, C 1 -C 8 alkoxy, Br, Cl, or F.
A terminal apparatus comprising: a reception section adapted to receive allocation information indicating one or more frequency resources that are allocated using one of a plurality of types, by which a bandwidth of a transmission signal using a MIMO transmission in uplink is divided into the frequency resources that are non-consecutive; and a transmission section adapted to transmit the transmission signal based on the allocation information, characterized in that each of the frequency resources is comprised of a determined number of resource blocks or more, the determined number of resource blocks being a minimum bandwidth of each of the frequency resources, each of the resource blocks includes a pilot signal, and the minimum bandwidth of each of the frequency resources is increased or decreased according to a transmission bandwidth or a number of layers in the MIMO transmission, wherein the greater at least one of the transmission bandwidth and the number of layers of the terminal apparatus is, the greater the determined number of resource blocks is. a reception section adapted to receive allocation information indicating one or more frequency resources that are allocated using one of a plurality of types, by which a bandwidth of a transmission signal using a MIMO transmission in uplink is divided into the frequency resources that are non-consecutive; and a transmission section adapted to transmit the transmission signal based on the allocation information, characterized in that each of the frequency resources is comprised of a determined number of resource blocks or more, the determined number of resource blocks being a minimum bandwidth of each of the frequency resources, each of the resource blocks includes a pilot signal, and the minimum bandwidth of each of the frequency resources is increased or decreased according to a transmission bandwidth or a number of layers in the MIMO transmission, wherein the greater at least one of the transmission bandwidth and the number of layers of the terminal apparatus is, the greater the determined number of resource blocks is.
A reactor tube comprising a fixed bed of Fischer-Tropsch catalyst particles, wherein the catalyst particles in 5% to 40% of the fixed bed volume at the upstream end have an average outer surface to volume ratio (S/V) in the range of between 3.0 to 4.5 mm -1, preferably in the range of between 3.3 to 4.0 mm -1, and the catalyst particles in the remaining fixed bed volume have an average outer surface to volume ratio (S/V) in the range of between 4.5 to 8.0 mm -1, preferably in the range of between 4.6 to 8.0 mm -1, more preferably in the range of between 4.8 to 7.5 mm -1, and wherein the difference between the average S/V of the particles at the upstream end and the average S/V of the particles in the remaining fixed bed volume is at least 0.5 mm -1.
A warewash machine for washing wares, comprising: - a chamber for receiving wares, the chamber having an inlet side, an outlet side, multiple spray zones (32, 34) between the inlet side and the outlet side, and a conveyor arrangement for moving wares along a conveyance path through the multiple spray zones (32, 34) in a ware travel direction; - a prescrapping zone toward the inlet side of the chamber, the prescrapping zone having a blow-off system comprising a plurality of prescrapping nozzles and a compressed air feed line for delivering compressed air to the prescrapping nozzles; wherein: the prescrapping zone is located either (i) external of the chamber upstream of the inlet side of chamber relative to the ware travel direction or (ii) internal of the chamber downstream of the inlet side of the chamber and upstream of any liquid spray zones (32, 34) within the chamber; wherein the prescrapping nozzles are oriented to deliver air flow onto wares in the prescrapping zone so as to move at least some food soils off of the wares and into a soil collection system of the prescrapping zone; characterized in that the soil collection system further comprises a compressed air delivery arrangement below the conveyance path to promote movement of the food soils toward a strainer, wherein the compressed air delivery arrangement feeds compressed air to (i) collection system nozzles so that a combined liquid and air flow is output by the collection system nozzles and/or (ii) to a secondary set of nozzles below the conveyance path such that only air is output by the secondary set of nozzles. - a chamber for receiving wares, the chamber having an inlet side, an outlet side, multiple spray zones (32, 34) between the inlet side and the outlet side, and a conveyor arrangement for moving wares along a conveyance path through the multiple spray zones (32, 34) in a ware travel direction; - a prescrapping zone toward the inlet side of the chamber, the prescrapping zone having a blow-off system comprising a plurality of prescrapping nozzles and a compressed air feed line for delivering compressed air to the prescrapping nozzles; the prescrapping zone is located either (i) external of the chamber upstream of the inlet side of chamber relative to the ware travel direction or (ii) internal of the chamber downstream of the inlet side of the chamber and upstream of any liquid spray zones (32, 34) within the chamber; wherein the prescrapping nozzles are oriented to deliver air flow onto wares in the prescrapping zone so as to move at least some food soils off of the wares and into a soil collection system of the prescrapping zone; characterized in that the soil collection system further comprises a compressed air delivery arrangement below the conveyance path to promote movement of the food soils toward a strainer, wherein the compressed air delivery arrangement feeds compressed air to (i) collection system nozzles so that a combined liquid and air flow is output by the collection system nozzles and/or (ii) to a secondary set of nozzles below the conveyance path such that only air is output by the secondary set of nozzles.
A nucleic acid molecule comprising a reporter nucleotide sequence encoding a polypeptide comprising a Renilla luciferase amino acid having the sequence of SEQ ID NO:1, wherein the Renilla luciferase amino acid sequence is encoded by a luciferase nucleotide sequence having at least 95% sequence identity with SEQ ID NO: 2 and wherein the luciferase nucleotide sequence, when operably linked to a human RPL10 promoter in an expression plasmid, transfected into HT1080 cells and incubated for 30 minutes with a luciferase substrate, expresses at least 10% more signal than hRluc having the nucleotide sequence of SEQ ID NO:153 under the same conditions.
An integrated hysteroscopy device (4, 1100) with biopsy capabilities comprising: an elongate body comprising a proximal end and a distal end, wherein the elongate body comprises one or more lumens, the one or more lumens comprising an evacuation lumen with a distal end and a proximal end, the evacuation lumen extending along at least part of the length of the elongate body, wherein the elongate body comprises a distal opening in fluid communication with the evacuation lumen at or near the distal end of the elongate body and the elongate body has one or more side openings configured to increase the flow rate into and out of the device; a first hypotube and a second hypotube, wherein the first hypotube and the second hypotube are housed within the evacuation lumen of the elongate body; an atraumatic shielding member (3110, 3112) attached to the distal end of the elongated body, a visualization sensor located in the elongate body, wherein the visualization sensor is housed within the first hypotube; and a biopsy tool housed within the second hypotube, characterized in that the shielding member (3110, 3112) is detachable from the distal end of the elongated body. an elongate body comprising a proximal end and a distal end, wherein the elongate body comprises one or more lumens, the one or more lumens comprising an evacuation lumen with a distal end and a proximal end, the evacuation lumen extending along at least part of the length of the elongate body, wherein the elongate body comprises a distal opening in fluid communication with the evacuation lumen at or near the distal end of the elongate body and the elongate body has one or more side openings configured to increase the flow rate into and out of the device; a first hypotube and a second hypotube, wherein the first hypotube and the second hypotube are housed within the evacuation lumen of the elongate body; an atraumatic shielding member (3110, 3112) attached to the distal end of the elongated body, a visualization sensor located in the elongate body, wherein the visualization sensor is housed within the first hypotube; and a biopsy tool housed within the second hypotube, characterized in that the shielding member (3110, 3112) is detachable from the distal end of the elongated body.
An acrylic rubber composition comprising 0.1 to 50 parts by mass of a carbon material comprising graphene oxide, relative to 100 parts by mass of an acrylic rubber, wherein the acrylic rubber includes at least one functional group selected from an epoxy group, a carboxyl group, and an active chlorine group.
An analyte sensor comprising: a sensor tail comprising at least a working electrode; a glucose-responsive active area disposed upon a surface of the working electrode, the glucose-responsive active area comprising a glucose-responsive active enzyme; a first portion of an ethanol-responsive active area disposed upon a surface of the working electrode spaced apart from the glucose-responsive active area, the first portion of the ethanol-responsive active area comprising xanthine oxidase, a first polymer, and an optional electron transfer agent; a first membrane disposed upon the first portion of the ethanol-responsive active area, the first membrane comprising a first membrane polymer and being permeable to at least acetaldehyde; a second portion of the ethanol-responsive active area disposed upon the first membrane, the second portion of ethanol-responsive active area comprising glucose oxidase, catalase, and a second polymer; and a second membrane disposed upon the glucose-responsive active area and the second portion of the ethanol-responsive active area, the second membrane comprising a second membrane polymer and being permeable to at least glucose and ethanol. a sensor tail comprising at least a working electrode; a glucose-responsive active area disposed upon a surface of the working electrode, the glucose-responsive active area comprising a glucose-responsive active enzyme; a first portion of an ethanol-responsive active area disposed upon a surface of the working electrode spaced apart from the glucose-responsive active area, the first portion of the ethanol-responsive active area comprising xanthine oxidase, a first polymer, and an optional electron transfer agent; a first membrane disposed upon the first portion of the ethanol-responsive active area, the first membrane comprising a first membrane polymer and being permeable to at least acetaldehyde; a second portion of the ethanol-responsive active area disposed upon the first membrane, the second portion of ethanol-responsive active area comprising glucose oxidase, catalase, and a second polymer; and a second membrane disposed upon the glucose-responsive active area and the second portion of the ethanol-responsive active area, the second membrane comprising a second membrane polymer and being permeable to at least glucose and ethanol.
A surgery assistance device comprising: an arm unit including a holder for holding an endoscope and configured to adjust a position of the endoscope in a state in which the holder holds the endoscope; a display control section configured to perform display control of an endoscope captured image that is obtained by the endoscope held by the holder; and an operating unit configured to provide an operating input from an operator for rotating the endoscope captured image, a computation and control unit which is configured to obtain image rotational angle data indicating a rotational direction and a rotational angle of the captured image data from the endoscope, to generate image data of the endoscope captured image on the basis of the captured image data from the endoscope and the image rotational angle data, and when detecting the operating input from the operating unit, to update the image rotational angle data according to an operation amount of the operating input. an arm unit including a holder for holding an endoscope and configured to adjust a position of the endoscope in a state in which the holder holds the endoscope; a display control section configured to perform display control of an endoscope captured image that is obtained by the endoscope held by the holder; and an operating unit configured to provide an operating input from an operator for rotating the endoscope captured image, a computation and control unit which is configured to obtain image rotational angle data indicating a rotational direction and a rotational angle of the captured image data from the endoscope, to generate image data of the endoscope captured image on the basis of the captured image data from the endoscope and the image rotational angle data, and when detecting the operating input from the operating unit, to update the image rotational angle data according to an operation amount of the operating input.
A shaped preform component for a face portion of a composite wheel, the shaped preform component having a hub that extends around a central axis, the shaped preform component being formed from a cured composite fibre material, characterised in that the cured composite fibre material has a compressibility of < 2% volumetric under moulding conditions of 50 bar hydrostatic pressure and a temperature of 60 to 200 °C.
A 3D image display method, characterized by comprising: receiving a broadcast signal including video data and 3D object data; decoding the 3D object data, wherein the 3D object data includes text or image information about a 3D object, output location information of the 3D object, and disparity information of the 3D object; acquiring a parallax value from the disparity information and calculating a distortion compensation factor using the parallax value, wherein the distortion compensation factor is calculated by an equation of: the distortion compensation factor = an interocular distance value − the parallax value / the interocular distance value; adjusting a display size of the 3D object by multiplying the display size of the 3D object by the calculated distortion compensation factor; and displaying the 3D object having the adjusted display size. receiving a broadcast signal including video data and 3D object data; decoding the 3D object data, wherein the 3D object data includes text or image information about a 3D object, output location information of the 3D object, and disparity information of the 3D object; acquiring a parallax value from the disparity information and calculating a distortion compensation factor using the parallax value, wherein the distortion compensation factor is calculated by an equation of: the distortion compensation factor = an interocular distance value − the parallax value / the interocular distance value; adjusting a display size of the 3D object by multiplying the display size of the 3D object by the calculated distortion compensation factor; and displaying the 3D object having the adjusted display size.