mhurhangee/ep-ind-claims huggingface dataset:
Domestic refrigerator, in particular built-under domestic refrigerator, having a thermally insulated internal container with partitions of a storage compartment for refrigerated goods, of which at least one partition forms a base with an opening plane, into which a holder recess is embedded, further having a refrigerated goods tray which is removably inserted in the holder recess, also having a door leaf which is pivotably supported relative to an appliance opening which extends upwards from the opening plane in order to open and close the storage compartment, and a door rack, wherein the door rack of the internal container has a depth (T T) which corresponds at least approximately or precisely to the depth (T K) of the holder recess or of the refrigerated goods tray, and with the door rack being located directly above the holder recess or the refrigerated goods tray when the door leaf is closed, characterised in that the domestic refrigerator has a refrigerated goods drawer, with the depth (T T) of the door rack at the height of the refrigerated goods drawer together with the depth (T S) of the refrigerated goods drawer corresponding at least approximately or precisely to the overall depth (T G) of the internal container.
A fluoro rubber composition comprising a rubber component containing a fluoro rubber, carbon black, a vulcanization system compounding agent and alkylamine, wherein the fluoro rubber is at least one member selected among a copolymer of (i) at least one monomer selected among tetrafluoroethylene, hexafluoropropylene, pentafluoropropylene, trifluoroethylene, chlorotrifluoroethylene, vinyl fluoride, perfluoroalkyl vinyl ether and propylene, and (ii) vinylidene fluoride; a tetrafluoroethylene/perfluoroalkyl vinyl ether copolymer; and a tetrafluoroethylene/propylene copolymer; the carbon black has a specific surface area by nitrogen adsorption of 25 m 2 /g or more and not more than 180 m 2 /g, a dibutyl phthalate absorption amount of 60 mL/100 g or more and not more than 180 mL/100 g, and a compounding amount of the carbon black is 10 parts by mass or more and not more than 50 parts by mass based on 100 parts by mass of the rubber component, in a kneading step of compounding the carbon black in the rubber component, an average shear rate of a rotor tip point of a kneading machine is 100 (1/sec) or more, and a kneading maximum temperature T m is 120 °C or higher and not higher than 200 °C; and in a dynamic viscoelasticity test of an unvulcanized rubber by a rubber process analyzer (measurement temperature: 100 °C, measurement frequency: 1 Hz), a difference δG A ' (G'(1 %) - G' (100 %)) between a shear modulus G' (1 %) at the time of a dynamic strain of 1 % and a shear modulus G' (100 %) at the time of a dynamic strain of 100 % is 120 kPa or more and not more than 3,000 kPa.
A rigid IPVC pipe resin composition, which exhibits excellent strength and hydrostatic pressure resistance, comprising: a PVC resin having a K-value from 72 to 84 without use of a plasticizer; and 1 part by weight to 3 parts by weight of a tin stabilizer (tin complex); 3 parts by weight to 10 parts by weight of an impact modifier; and 1 part by weight to 10 parts by weight of a methacrylate lubricant, based on 100 parts by weight of the PVC resin having a K-value from 72 to 84. a PVC resin having a K-value from 72 to 84 without use of a plasticizer; and 1 part by weight to 3 parts by weight of a tin stabilizer (tin complex); 3 parts by weight to 10 parts by weight of an impact modifier; and 1 part by weight to 10 parts by weight of a methacrylate lubricant, based on 100 parts by weight of the PVC resin having a K-value from 72 to 84.
A polylactic acid-based film or sheet as a resin film or sheet comprising a polylactic acid, wherein the polylactic acid-based film or sheet is formed from a resin composition including a polylactic acid in combination with a tear resistance improver, wherein the tear resistance improver is selected from the group comprising (a) a polyglycerol fatty acid ester and/or a polyglycerol-condensed hydroxy fatty acid ester (b) a core-shell structured polymer including a particulate rubber and a graft layer present outside of the particulate rubber, and (c) a soft aliphatic polyester, or combinations thereof, wherein the polylactic acid-based film or sheet has a melt endotherm ΔHc' of 10 J/g or more, where the melt endotherm ΔHc' is of a region crystallized upon film formation and specified by Expression expressed as follows: ΔHc ′ = ΔHm − ΔHc wherein ΔHc represents an exotherm (J/g) associated with crystallization of the film or sheet in a temperature rise process after film formation; and ΔHm represents an endotherm (J/g) associated with subsequent melting of the film or sheet, where ΔHc and ΔHm are determined by DSC; and the polylactic acid-based film or sheet has a tear strength of 2.5 N/mm or more both in a machine direction and in a transverse direction, the tear strength determined according to "Paper-Determination of tearing resistance-Elmendorf tearing tester method" specified in JIS P 8116. wherein ΔHc represents an exotherm (J/g) associated with crystallization of the film or sheet in a temperature rise process after film formation; and ΔHm represents an endotherm (J/g) associated with subsequent melting of the film or sheet, where ΔHc and ΔHm are determined by DSC; and the polylactic acid-based film or sheet has a tear strength of 2.5 N/mm or more both in a machine direction and in a transverse direction, the tear strength determined according to "Paper-Determination of tearing resistance-Elmendorf tearing tester method" specified in JIS P 8116.
An endoprosthesis delivery system comprising: a branched endoprosthesis having a long leg and a short leg, each leg having an end, the short leg including a tail (146, 220, 222, 224, 226), the tail is a seamless extension of a graft material forming a graft component of the branched endoprosthesis that extends beyond the end of the short leg; and a constraint attached to at least a portion of the long leg prior to deployment, wherein the constraint also retains at least a portion of the tail (146, 220, 222, 224, 226), wherein the constraint is configured to release both the long leg and the tail (146, 220, 222, 224, 226) when the branched endoprosthesis is fully deployed, wherein when constrained by the constraint with a distal portion of the long leg during deployment of the branched endoprosthesis, the tail (146, 220, 222, 224, 226) is configured to couple together and maintain alignment of the long leg and the short leg to assist in cannulation of the short leg, and wherein the constraint is configured to, during deployment of the branched endoprosthesis from a collapsed configuration to an expanded configuration, first release a distal section of the branched endoprosthesis, the distal section including a tubular body portion, the distal portion of the long leg, and the short leg, with undeployed sections of the long leg and at least a portion of the tail (146, 220, 222, 224, 226) remaining temporarily constrained by the constraint. a branched endoprosthesis having a long leg and a short leg, each leg having an end, the short leg including a tail (146, 220, 222, 224, 226), the tail is a seamless extension of a graft material forming a graft component of the branched endoprosthesis that extends beyond the end of the short leg; and a constraint attached to at least a portion of the long leg prior to deployment, wherein the constraint also retains at least a portion of the tail (146, 220, 222, 224, 226), wherein the constraint is configured to release both the long leg and the tail (146, 220, 222, 224, 226) when the branched endoprosthesis is fully deployed, wherein when constrained by the constraint with a distal portion of the long leg during deployment of the branched endoprosthesis, the tail (146, 220, 222, 224, 226) is configured to couple together and maintain alignment of the long leg and the short leg to assist in cannulation of the short leg, and wherein the constraint is configured to, during deployment of the branched endoprosthesis from a collapsed configuration to an expanded configuration, first release a distal section of the branched endoprosthesis, the distal section including a tubular body portion, the distal portion of the long leg, and the short leg, with undeployed sections of the long leg and at least a portion of the tail (146, 220, 222, 224, 226) remaining temporarily constrained by the constraint.
A method for producing an orally administrable edible agent of laminate film form characterized by comprising: an orally administrable agent layer forming step for forming an orally administrable edible agent layer having a predetermined thickness on a surface of a resin film by coating and drying; an orally administrable agent layer pressure bonding step for joining together two orally administrable agent layer-formed resin films provided with orally administrable edible agent layers of the same ingredient or different ingredients obtained in said orally administrable agent layer forming step so that orally administrable edible agent layer surfaces face each other, and pressurizing the resin films at back surfaces by a pair of press rolls to bond the orally administrable edible agent layers together; and a resin film delaminating step for delaminating only one of said joined two resin films by conveying the two resin films sandwiching said bonded orally administrable edible agent layers in a direction substantially conforming to a tangential direction at a pressurization zone of said pair of press rolls, and drawing only one of said two resin films sandwiching the bonded orally administrable edible agent layers in a direction different from said conveying direction along a peripheral surface of a delamination roll disposed in the conveying direction while continuously conveying the other resin film retaining the orally administrable edible agent layers in said conveying direction. an orally administrable agent layer forming step for forming an orally administrable edible agent layer having a predetermined thickness on a surface of a resin film by coating and drying; an orally administrable agent layer pressure bonding step for joining together two orally administrable agent layer-formed resin films provided with orally administrable edible agent layers of the same ingredient or different ingredients obtained in said orally administrable agent layer forming step so that orally administrable edible agent layer surfaces face each other, and pressurizing the resin films at back surfaces by a pair of press rolls to bond the orally administrable edible agent layers together; and a resin film delaminating step for delaminating only one of said joined two resin films by conveying the two resin films sandwiching said bonded orally administrable edible agent layers in a direction substantially conforming to a tangential direction at a pressurization zone of said pair of press rolls, and drawing only one of said two resin films sandwiching the bonded orally administrable edible agent layers in a direction different from said conveying direction along a peripheral surface of a delamination roll disposed in the conveying direction while continuously conveying the other resin film retaining the orally administrable edible agent layers in said conveying direction.
A method for wireless communications by a mobile device within a heterogeneous network of synchronous and asynchronous devices, comprising: receiving, from a base station, timing information for the base station; and being characterized by transmitting a timing signal comprising the timing information, the timing signal being transmitted using one or more symbols at a first frequency during a first portion of a sub-frame reserved for device-to-device discovery, wherein an additional timing signal is transmitted using one or more symbols at a second frequency during a second portion of the sub-frame, the additional timing signal comprising timing information for an additional base station. receiving, from a base station, timing information for the base station; and being characterized by transmitting a timing signal comprising the timing information, the timing signal being transmitted using one or more symbols at a first frequency during a first portion of a sub-frame reserved for device-to-device discovery, wherein an additional timing signal is transmitted using one or more symbols at a second frequency during a second portion of the sub-frame, the additional timing signal comprising timing information for an additional base station.
A method (1300-a) of wireless communications, the method being performed in a wireless communication system, said method comprising: receiving signaling data over a first carrier; and transitioning from receiving the signaling data over the first carrier to at least transmitting or receiving traffic data over a second carrier, wherein the first carrier or the second carrier comprises a scaled flexible bandwidth carrier, the bandwidth of said flexible bandwidth carrier being dynamically adjustable, and wherein the flexible bandwidth carrier is generated through scaling up a slot duration of the flexible bandwidth carrier with respect to the slot duration of a standardized bandwidth carrier by a scaling factor N, thereby accordingly reducing the bandwidth of the flexible bandwidth carrier with respect to the bandwidth of the standardized bandwidth carrier. receiving signaling data over a first carrier; and transitioning from receiving the signaling data over the first carrier to at least transmitting or receiving traffic data over a second carrier, wherein the first carrier or the second carrier comprises a scaled flexible bandwidth carrier, the bandwidth of said flexible bandwidth carrier being dynamically adjustable, and wherein the flexible bandwidth carrier is generated through scaling up a slot duration of the flexible bandwidth carrier with respect to the slot duration of a standardized bandwidth carrier by a scaling factor N, thereby accordingly reducing the bandwidth of the flexible bandwidth carrier with respect to the bandwidth of the standardized bandwidth carrier.
A moving image encoding device for generating a bit stream by subjecting a digital moving image signal to compression encoding which is performed by transforming and quantizing the digital moving image signal on a block basis, the moving image encoding device comprising an encoding unit for multiplexing, on the bit stream, chroma format identification information for designating a chroma format of an input video signal to be encoded, common encoding/independent encoding identification information indicating which of encoding through a common encoding process and encoding through an independent encoding process is executed, and intra only encoding instruction information which indicates whether or not to intra encode all pictures corresponding to the digital moving image signal, wherein the encoding unit encodes using a plurality of intra prediction modes each respectively corresponding to one of a luminance component and a chrominance component when the chroma format identification information indicates 4: 2: 0 or 4: 2: 2, the encoding unit encodes using an intra prediction image of each color component generated based on a single intra prediction mode common to all the color components when the chroma format identification information indicates 4: 4: 4 and the common encoding/independent encoding identification information indicates common encoding processing, the encoding unit encodes using an intra prediction image of each color component generated based on an individual intra prediction mode for each color component when the chroma format identification information indicates 4: 4: 4 and the common encoding/independent encoding identification information indicates independent encoding processing, and the encoding unit controls an operation of a deblocking filter at each boundary between blocks serving as units of the transform and quantization not to be executed when the intra only encoding instruction information indicates that all the pictures corresponding to the digital moving image signal are intra encoded.
Rear load carrier for mounting on a motor vehicle with a supporting frame which has a connection device for fastening to a trailer hitch on the vehicle side, the connection device comprising a housing body open towards the underside, two retaining elements (10, 11) which form a downwardly open receptacle between them for a connection head of the trailer hitch and are each mounted on the housing body so as to be pivotable about a swivel axis (X1, X2), and an operating device coupled to the retaining elements (10, 11) for pivoting them relative to one another between an insertion position in which the retaining elements (10, 11) are pivoted apart such that the connection device can be placed on or removed from the connection head and a holding position in which the retaining elements (10, 11) fixingly engage around a connection head located in the receptacle, characterized in that the operating device is pivotally connected to both retaining elements (10, 11) above the swivel axis (X1, X2) in such a way that the free end sections (25, 26) of both retaining elements (10, 11) located below the swivel axis (X1, X2) are pivoted towards one another in opposite directions by the operating device when the retaining elements (10, 11) are pivoted from their insertion position into their holding position. a housing body open towards the underside, two retaining elements (10, 11) which form a downwardly open receptacle between them for a connection head of the trailer hitch and are each mounted on the housing body so as to be pivotable about a swivel axis (X1, X2), and an operating device coupled to the retaining elements (10, 11) for pivoting them relative to one another between an insertion position in which the retaining elements (10, 11) are pivoted apart such that the connection device can be placed on or removed from the connection head and a holding position in which the retaining elements (10, 11) fixingly engage around a connection head located in the receptacle,
An electronic device comprising: a sensor module comprising a pressure sensor and a sensor hub configured to: sense using the pressure sensor a pressure applied to the electronic device, and send a pressure value corresponding to the sensed pressure to a processor; and the processor configured to perform an operation corresponding to the pressure value received from the sensor module, when the sensor hub determines that the sensed pressure belongs to a first interval, the sensor module sends a first pressure value, which represents the first interval, to the processor, after sending the first pressure value, when the sensed pressure is sensed again as corresponding to the first interval, omit resending the first pressure value to the processor, when the sensor hub determines that the sensed pressure belongs to a second interval higher than the first interval, the sensor module sends a second pressure value corresponding to the sensed pressure to the processor, when the sensor hub determines that the sensed pressure belongs to a third interval higher than the second interval, the sensor module sends a third pressure value, which represents the third interval, to the processor, and after sending the third pressure value, when the sensed pressure is sensed again as corresponding to the third interval, omit resending the third pressure value to the processor. sense using the pressure sensor a pressure applied to the electronic device, and send a pressure value corresponding to the sensed pressure to a processor; and the processor configured to perform an operation corresponding to the pressure value received from the sensor module, when the sensor hub determines that the sensed pressure belongs to a first interval, the sensor module sends a first pressure value, which represents the first interval, to the processor, after sending the first pressure value, when the sensed pressure is sensed again as corresponding to the first interval, omit resending the first pressure value to the processor, when the sensor hub determines that the sensed pressure belongs to a second interval higher than the first interval, the sensor module sends a second pressure value corresponding to the sensed pressure to the processor, when the sensor hub determines that the sensed pressure belongs to a third interval higher than the second interval, the sensor module sends a third pressure value, which represents the third interval, to the processor, and after sending the third pressure value, when the sensed pressure is sensed again as corresponding to the third interval, omit resending the third pressure value to the processor.
A probe for measuring the biomass content in a medium having a suspending fluid and cells, the probe having at least three electrodes, wherein two of the electrodes are configured as excitation electrodes for transmitting an excitation signal through a medium, and said excitation electrodes are configured such that the current density of an excitation signal passing between said excitation electrodes through said medium varies along the length of the excitation electrodes, wherein two of the electrodes are configured as signal electrodes for measuring a voltage therebetween that has been generated by an excitation signal passing between the excitation electrodes, and where only three electrodes are provided the signal couple of electrodes for receiving the excitation signal that has passed through the medium comprise one of the excitation electrodes and a single sensing electrode, wherein at least the single sensing electrode or each signal electrode is located between the two excitation electrodes at a position where high or higher current density occurs such that the single sensing electrode or each signal electrode is positioned upon, or located on or adjacent, a current path which has substantially the same current phase as the total excitation current, and wherein the single sensing electrode or each signal electrode is a different length to the excitation electrodes, and wherein the single sensing electrode or each signal electrodes is less than one third the length of the excitation electrodes. wherein two of the electrodes are configured as excitation electrodes for transmitting an excitation signal through a medium, and said excitation electrodes are configured such that the current density of an excitation signal passing between said excitation electrodes through said medium varies along the length of the excitation electrodes, wherein two of the electrodes are configured as signal electrodes for measuring a voltage therebetween that has been generated by an excitation signal passing between the excitation electrodes, and where only three electrodes are provided the signal couple of electrodes for receiving the excitation signal that has passed through the medium comprise one of the excitation electrodes and a single sensing electrode, wherein at least the single sensing electrode or each signal electrode is located between the two excitation electrodes at a position where high or higher current density occurs such that the single sensing electrode or each signal electrode is positioned upon, or located on or adjacent, a current path which has substantially the same current phase as the total excitation current, and wherein the single sensing electrode or each signal electrode is a different length to the excitation electrodes, and wherein the single sensing electrode or each signal electrodes is less than one third the length of the excitation electrodes.