mhurhangee/ep-ind-claims huggingface dataset:
A staple cartridge (5306, 5356, 5406) for use with a surgical stapler, the staple cartridge (5306, 5356, 5406) comprising: a cartridge body having a tissue-contacting surface (5308, 5358 5408); a plurality of staple drivers within the cartridge body each supporting a staple, wherein the staples are coated in a fluorescing dye, and characterised in that one or more LEDs (5310, 5360, 5410) are positioned at the edges of the tissue-contacting surface (5308, 5358 5408) and the wavelength of the LEDs (5310, 5360, 5410) is such that the LEDs (5310, 5360, 5410) cause the fluorescing dye to glow. a cartridge body having a tissue-contacting surface (5308, 5358 5408); a plurality of staple drivers within the cartridge body each supporting a staple, wherein the staples are coated in a fluorescing dye, and characterised in that one or more LEDs (5310, 5360, 5410) are positioned at the edges of the tissue-contacting surface (5308, 5358 5408) and the wavelength of the LEDs (5310, 5360, 5410) is such that the LEDs (5310, 5360, 5410) cause the fluorescing dye to glow.
A current sensor comprising: a plurality of bus bars formed from an electric conductor: a plurality of magnetic sensors that detect an induced magnetic field generated by a current flowing in each bus bar; a circuit board on which the magnetic sensors are mounted; a case made of a synthetic resin, the case fixing the bus bars and the circuit board; a lid portion, made of a synthetic resin, that houses the circuit board together with the case; and a magnetic shield that is insert-molded in the lid portion; characterised in that the magnetic shield has a plurality of cutouts along circumferential edges of the magnetic shield, and hole portions are formed from which outer edges of the cutouts of the magnetic shield are exposed. a plurality of bus bars formed from an electric conductor: a plurality of magnetic sensors that detect an induced magnetic field generated by a current flowing in each bus bar; a circuit board on which the magnetic sensors are mounted; a case made of a synthetic resin, the case fixing the bus bars and the circuit board; a lid portion, made of a synthetic resin, that houses the circuit board together with the case; and a magnetic shield that is insert-molded in the lid portion; characterised in that a plurality of magnetic sensors that detect an induced magnetic field generated by a current flowing in each bus bar; a circuit board on which the magnetic sensors are mounted; a case made of a synthetic resin, the case fixing the bus bars and the circuit board; a lid portion, made of a synthetic resin, that houses the circuit board together with the case; and a magnetic shield that is insert-molded in the lid portion; the magnetic shield has a plurality of cutouts along circumferential edges of the magnetic shield, and hole portions are formed from which outer edges of the cutouts of the magnetic shield are exposed.
A method for operating a power generation system coupled to a power grid during a grid unbalance event or a grid fault event, the method comprising: determining a power grid voltage; determining a negative sequence grid voltage of the power grid from the power grid voltage; comparing the determined negative sequence grid voltage with a reference voltage; and determining a negative sequence reactive injection current for injection into the power grid by the power generation system depending on the result of the comparison, characterised in that the negative sequence reactive injection current is supplied into the power grid when the determined negative sequence grid voltage exceeds the reference voltage, and that the negative sequence reactive injection current has a linear relationship with the negative sequence grid voltage up to a predetermined maximum negative sequence injection current limit. determining a power grid voltage; determining a negative sequence grid voltage of the power grid from the power grid voltage; comparing the determined negative sequence grid voltage with a reference voltage; and determining a negative sequence reactive injection current for injection into the power grid by the power generation system depending on the result of the comparison, characterised in that the negative sequence reactive injection current is supplied into the power grid when the determined negative sequence grid voltage exceeds the reference voltage, and that the negative sequence reactive injection current has a linear relationship with the negative sequence grid voltage up to a predetermined maximum negative sequence injection current limit.
A sealing head for a strapping machine for feeding a steel strapping material around a load, tensioning the strapping material and welding the strapping material to itself in an end-to-end weld, the strapping material conveyed along a strap path, the sealing head comprising: a body; a drive; an end grip disposed at about an inlet to the body; a cutter; a shuttle configured to move transverse to the strap path; a grip clamp; and a loop grip disposed downstream of the end grip, the loop grip carried on a loop grip carriage, the loop grip carriage movable in a direction along the strap path, wherein a leading end of strapping material is secured by the end grip, a loop portion of the strap is gripped by the loop grip and severed by the cutter to form a loop end of the strapping material, the loop end being secured by the grip clamp, wherein the loop grip carriage moves the loop end toward the leading end as current is passed though the loop end and the leading end to weld the loop end and leading end to one another in an end-to-end weld, characterised in that the cutter and the grip clamp are carried on the shuttle. a body; a drive; an end grip disposed at about an inlet to the body; a cutter; a shuttle configured to move transverse to the strap path; a grip clamp; and a loop grip disposed downstream of the end grip, the loop grip carried on a loop grip carriage, the loop grip carriage movable in a direction along the strap path,
A method for determining location on a wireless communication device, comprising: receiving a request for wireless device location; receiving a plurality of wireless network messages, each message transmitted from a respective network edge device (26, 28), wherein the plurality of wireless network messages are received from at least respective two wireless networks; obtaining location measurement information from the received wireless network messages; obtaining location determining assistance information for each of the wireless networks associated with the received wireless network messages; determining two or more wireless device locations based on the location measurement information and the location determining assistance information, wherein each wireless device location is determined using location measurement information associated with a respective one of the wireless networks; determining an integrated wireless device location based on the integration of the two or more wireless device locations; and validating and storing the integrated wireless device location. receiving a request for wireless device location; receiving a plurality of wireless network messages, each message transmitted from a respective network edge device (26, 28), wherein the plurality of wireless network messages are received from at least respective two wireless networks; obtaining location measurement information from the received wireless network messages; obtaining location determining assistance information for each of the wireless networks associated with the received wireless network messages; determining two or more wireless device locations based on the location measurement information and the location determining assistance information, wherein each wireless device location is determined using location measurement information associated with a respective one of the wireless networks; determining an integrated wireless device location based on the integration of the two or more wireless device locations; and validating and storing the integrated wireless device location.
An impact power tool comprising: a tool body, a hammer actuating member (119, 145) that is disposed in a tip end region of the tool body and is adapted to perform a predetermined hammering operation on a workpiece by a reciprocating movement in its axial direction, a tool holder adapted to entirely or partially hold the hammer actuating member (119, 145), a driving mechanism that is disposed on the rear side of the tool body opposite the hammer actuating member and is adapted to linearly drive the hammer actuating member (119, 145), a cylinder that houses the driving mechanism, a weight placed in contact with the hammer actuating member (119, 145) to move rearward in the tool body when a reaction force is transmitted thereto from the hammer actuating member when the hammer actuating member (119, 145) performs a hammering operation on the workpiece, wherein the weight is defined by the cylinder, and an elastic element is adapted to elastically deform when the weight moves rearward in the tool body and pushes against the elastic element such that the elastic element absorbs the reaction force transmitted to the weight, characterized in that the weight is placed in contact with the hammer actuating member (119, 145) via an intervening member made of metal and is adapted to move rearward in the tool body by receiving a reaction force from the hammer actuating member (119, 145) via the intervening member. a tool body, a hammer actuating member (119, 145) that is disposed in a tip end region of the tool body and is adapted to perform a predetermined hammering operation on a workpiece by a reciprocating movement in its axial direction, a tool holder adapted to entirely or partially hold the hammer actuating member (119, 145), a driving mechanism that is disposed on the rear side of the tool body opposite the hammer actuating member and is adapted to linearly drive the hammer actuating member (119, 145), a cylinder that houses the driving mechanism, a weight placed in contact with the hammer actuating member (119, 145) to move rearward in the tool body when a reaction force is transmitted thereto from the hammer actuating member when the hammer actuating member (119, 145) performs a hammering operation on the workpiece, wherein the weight is defined by the cylinder, and an elastic element is adapted to elastically deform when the weight moves rearward in the tool body and pushes against the elastic element such that the elastic element absorbs the reaction force transmitted to the weight, characterized in that the weight is placed in contact with the hammer actuating member (119, 145) via an intervening member made of metal and is adapted to move rearward in the tool body by receiving a reaction force from the hammer actuating member (119, 145) via the intervening member.
A clear coat coating composition with a resin solids content comprising a hydroxyl-functional binder component and a crosslinker component, wherein the hydroxyl-functional binder component comprises at least one hydroxyl-functional urethane component comprising at least one aliphatic polyether polyol having -OCH 2 C n F 2n+1 groups with n = 1 or 2 as a building block, and wherein said -OCH 2 C n F 2n+1 groups provide the clear coat coating composition with a fluorine content of 0.1 to 3 wt.%, calculated on the resin solids content of the clear coat coating composition.
A non-aqueous liquid concentrate comprising; starch; an acrylic acid homopolymer salt; vegetable oil; and clay; wherein, the non-aqueous liquid concentrate forms an aqueous dispersion when added to water and is capable of clinging to a surface.
A beer maker comprising: a container including an opening, the container providing a storage space; an accommodating apparatus attachably/detachably provided in the storage space through the opening, the accommodating apparatus providing a space in which wort is stored; a capsule mounting part communicating with the accommodating apparatus; and a capsule attachably/detachably provided in the capsule mounting part, the capsule accommodating materials therein, wherein the capsule includes a yeast capsule supplying yeast to the accommodating apparatus. a container including an opening, the container providing a storage space; an accommodating apparatus attachably/detachably provided in the storage space through the opening, the accommodating apparatus providing a space in which wort is stored; a capsule mounting part communicating with the accommodating apparatus; and a capsule attachably/detachably provided in the capsule mounting part, the capsule accommodating materials therein, wherein the capsule includes a yeast capsule supplying yeast to the accommodating apparatus.
A welding-smoke extraction system with a vertical structure, wherein an aspiration opening is provided on the upper region of the system, through which the air polluted with welding smoke can be aspirated, wherein a vertical channel is provided in the interior of the system, through which the aspirated polluted air in the interior of the system is conducted downwards, wherein the vertical channel has an opening in the lower region of the system on the side, through which opening the air flow is deflected to a particle impact separator arranged in the region of the opening and is guided through the same, wherein a filter chamber is provided in the air passage downstream of the particle impact separator, into which the airflow passes downstream of the particle impact separator, wherein one or a plurality of filter body/bodies is/are arranged in the filter chamber, wherein a fan driving the air flow is provided in the air passage downstream of the filter chamber, wherein the air flow in the interior of the filter body/bodies is aspirated and after flowing to the filter body/bodies, is conducted upwards through the fan, which is arranged above the filter bodies, out of the filter chamber, wherein the filtered air flow is passed to the outside again at exhaust openings located in the lower region of the system, characterised in that the particle impact separator is designed with two vertically arranged groups (2 and 3) of V profiles (21, 31), which are arranged parallel to one another and are designed to be V-shaped in cross section, wherein the V profiles of the first group are orientated with the peak of the V-shaped cross section in the flow direction, and the V profiles of the second group are orientated with the peak of the V-shaped cross section opposite to the flow direction and are offset to the rear compared to the first group, wherein the V profiles of the second group are offset laterally and to the rear in such a manner compared to the V profiles of the first group that the peaks of the V-shaped cross section are arranged in the centre between the gaps of the peaks of the V-shaped cross section of the V profiles of the first group, and in that the shanks (23, 33) protruding from the peaks (22, 32) of the V-shaped cross sections overlap in a part region and thus form a slotted channel.
A computer-implemented method of inferring phoneme probabilities in speech audio, the method comprising: encoding, using a first encoder, a first sound embedding from a first segment of speech audio comprising a key phrase; storing the first sound embedding; encoding, using a second encoder, a second sound embedding from the first segment of speech audio, wherein the second encoder is different to the first encoder; storing the second sound embedding; and inferring the phoneme probabilities using an acoustic model (42, 44) having as inputs: a second segment of speech audio following the first segment of speech audio; the stored first sound embedding; and the stored second sound embedding. encoding, using a first encoder, a first sound embedding from a first segment of speech audio comprising a key phrase; storing the first sound embedding; encoding, using a second encoder, a second sound embedding from the first segment of speech audio, wherein the second encoder is different to the first encoder; storing the second sound embedding; and inferring the phoneme probabilities using an acoustic model (42, 44) having as inputs: a second segment of speech audio following the first segment of speech audio; the stored first sound embedding; and the stored second sound embedding. a second segment of speech audio following the first segment of speech audio; the stored first sound embedding; and the stored second sound embedding.
A data migration method, comprising: obtaining, by a source host, a migration instruction, wherein the migration instruction is used to instruct to migrate a target application created with an enclave to a destination host; characterized by, invoking (302, 303, 304), by the source host, a migration control thread preset in the enclave of the target application, to write running status data of the target application in an enclave page cache EPC into target memory of the source host, wherein the target memory is an area other than the EPC in memory of the source host; and sending, by the source host, the running status data of the target application in the target memory to the destination host; wherein the invoking, by the source host, a migration control thread preset in the enclave of the target application, to write running status data of the target application in an enclave page cache EPC into target memory of the source host comprises: invoking, by the source host, the migration control thread, to obtain running status data of the enclave from the EPC; and invoking, by the source host, the migration control thread, to write the running status data of the enclave in the EPC into the target memory. obtaining, by a source host, a migration instruction, wherein the migration instruction is used to instruct to migrate a target application created with an enclave to a destination host; characterized by, invoking (302, 303, 304), by the source host, a migration control thread preset in the enclave of the target application, to write running status data of the target application in an enclave page cache EPC into target memory of the source host, wherein the target memory is an area other than the EPC in memory of the source host; and sending, by the source host, the running status data of the target application in the target memory to the destination host; wherein the invoking, by the source host, a migration control thread preset in the enclave of the target application, to write running status data of the target application in an enclave page cache EPC into target memory of the source host comprises: invoking, by the source host, the migration control thread, to obtain running status data of the enclave from the EPC; and invoking, by the source host, the migration control thread, to write the running status data of the enclave in the EPC into the target memory. invoking, by the source host, the migration control thread, to obtain running status data of the enclave from the EPC; and invoking, by the source host, the migration control thread, to write the running status data of the enclave in the EPC into the target memory.
A thermoplastic resin, comprising: an alkyl acrylate-alkyl methacrylate graft copolymer, or an alkyl acrylate-alkyl methacrylate graft copolymer; and a matrix resin comprising one or more selected from the group consisting of an alkyl methacrylate polymer and an alkyl methacrylate-alkyl acrylate copolymer, wherein a transparency (haze value), measured according to ASTM D-1003 under a condition of 0.15 mm thickness, is 2 or less, and a transparency measured under a condition of 3 mm thickness is 4 or less, a total content of the alkyl acrylate is 20 to 50 % by weight, and a butyl acrylate coverage value as calculated by Equation 1 below is 50 or more: X = G − Y / Y × 100, wherein G represents a total gel content (%) of the thermoplastic resin, and Y represents a content (% by weight) of butyl acrylate in the gel of the thermoplastic resin, wherein the copolymer comprises 25 to 50 % by weight of an alkyl acrylate rubber (a-1) having a DLS average particle diameter of 40 to 120 nm or a TEM average particle diameter of 25 to 100 nm; and 50 to 75 % by weight of an alkyl acrylate-alkyl methacrylate copolymer (a-2) based on 100 % by weight in total of the copolymer, wherein the copolymer has a grafting degree of 60 to 200 %, and the copolymer (a-2) has a weight-average molecular weight of 40,000 to 120,000 g/mol, and wherein the total content of the alkyl acrylate, the butyl acrylate coverage value, the total gel content of the thermoplastic resin, the content of butyl acrylate in the gel, the grafting degree and the weight-average molecular weight are measured as disclosed in the specification. an alkyl acrylate-alkyl methacrylate graft copolymer, or an alkyl acrylate-alkyl methacrylate graft copolymer; and a matrix resin comprising one or more selected from the group consisting of an alkyl methacrylate polymer and an alkyl methacrylate-alkyl acrylate copolymer, wherein a transparency (haze value), measured according to ASTM D-1003 under a condition of 0.15 mm thickness, is 2 or less, and a transparency measured under a condition of 3 mm thickness is 4 or less, a total content of the alkyl acrylate is 20 to 50 % by weight, and a butyl acrylate coverage value as calculated by Equation 1 below is 50 or more: X = G − Y / Y × 100, wherein G represents a total gel content (%) of the thermoplastic resin, and Y represents a content (% by weight) of butyl acrylate in the gel of the thermoplastic resin, wherein the copolymer comprises 25 to 50 % by weight of an alkyl acrylate rubber (a-1) having a DLS average particle diameter of 40 to 120 nm or a TEM average particle diameter of 25 to 100 nm; and 50 to 75 % by weight of an alkyl acrylate-alkyl methacrylate copolymer (a-2) based on 100 % by weight in total of the copolymer, wherein the copolymer has a grafting degree of 60 to 200 %, and the copolymer (a-2) has a weight-average molecular weight of 40,000 to 120,000 g/mol, and wherein the total content of the alkyl acrylate, the butyl acrylate coverage value, the total gel content of the thermoplastic resin, the content of butyl acrylate in the gel, the grafting degree and the weight-average molecular weight are measured as disclosed in the specification.
An in vitro method of developmental toxicity testing comprising the steps of: a. micropatterning an extracellular matrix; b. growing embryonic stem cells on the micropatterned extracellular matrix in the presence of a mesoendodermal induction medium for forming a geometrical mesoendoderm structure; and c. testing for change of the geometrical mesoendoderm structure in a presence or an absence of a test compound wherein a decrease in mesoendodermal cell differentiation and/or a change in morphology of the geometrical mesoendoderm structure in the presence of the test compound compared to cells in the absence of the test compound indicates that the test compound is a developmental toxic agent. a. micropatterning an extracellular matrix; b. growing embryonic stem cells on the micropatterned extracellular matrix in the presence of a mesoendodermal induction medium for forming a geometrical mesoendoderm structure; and c. testing for change of the geometrical mesoendoderm structure in a presence or an absence of a test compound wherein a decrease in mesoendodermal cell differentiation and/or a change in morphology of the geometrical mesoendoderm structure in the presence of the test compound compared to cells in the absence of the test compound indicates that the test compound is a developmental toxic agent.