mhurhangee/patent-ind-claim-en huggingface dataset:
A razor apparatus comprising: a razor cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) having an aperture; a plurality of razor blades (110; 180; 200; 390; 450; 570; 860; 890; 1180; 1460, 1780, 3930, 3630) mounted longitudinally in the aperture and positioned in the aperture parallel to one another and at an angle relative to a longitudinal axis of the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) and thereby forming angled gaps; the plurality of razor blades (110; 180; 200; 390; 450; 570; 860; 890; 1180; 1460, 1780, 3930, 3630) and the aperture defining a blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel inlet and a channel outlet; the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel cross-sectional area; a scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) attached to the cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) and defining a scoop channel; the scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) has a rectangular shape and being formed by at least three walls of a rectangle; the scoop channel including an entry mouth having a mouth cross-sectional area; characterized in that the mouth cross-sectional area is at least 1.2 times that of the channel cross sectional area; and the scoop channel being configured to direct water flowing in through the mouth into the channel inlet, wherein the scoop channel includes at least one partition which divides the scoop channel into a plurality of scoop channels. the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel cross-sectional area; a scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) attached to the cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) and defining a scoop channel; the scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) has a rectangular shape and being formed by at least three walls of a rectangle; the scoop channel including an entry mouth having a mouth cross-sectional area; characterized in that the mouth cross-sectional area is at least 1.2 times that of the channel cross sectional area; and the scoop channel being configured to direct water flowing in through the mouth into the channel inlet, wherein the scoop channel includes at least one partition which divides the scoop channel into a plurality of scoop channels.
An in vitro method for diagnosing an ectatic disease of the cornea in a subject which comprises: a) determining the expression level of TLR2 and/or TLR4 in a sample from said subject; and b) comparing said expression level with a reference value wherein, if the expression level of TLR2 and/or TLR4 is higher than said reference value is indicative that the subject suffers from an ectatic disease of the cornea. a) determining the expression level of TLR2 and/or TLR4 in a sample from said subject; and b) comparing said expression level with a reference value
A process for regenerating a silica-supported depleted alkali metal catalyst wherein the level of alkali metal on the depleted catalyst is at least 0.5 mol%, and wherein the silica support is a xerogel comprising the step of:- contacting said silica supported depleted alkali metal catalyst with a solution of a salt of the alkali metal in a solvent system that has a polar organic solvent as the majority component.
A method comprising: receiving from a first computing device (102; 300), through a browser extension application executed at the first computing device (102; 300), an indication of a financial service account associated with the first computing device (102; 300); detecting , through the browser extension application (106; 314), a payment field in a web page provided by the first computing device (102; 300) through a web browser application (108; 316; 600); in response to detecting the payment field, (i) generating a secure token mapped to the financial service account and (ii) transmitting , to a second computing device (118; 318; 606), an authentication request, through an authentication application (120; 332; 608) executed at the second computing device (118; 318; 606); in response to transmitting the authentication request, receiving an authentication response from the second computing device (118; 318; 606), through the authentication application (120; 332; 608); and in response to determining that the authentication response satisfies the authentication request, populating the payment field with the secure token through the browser extension application (106; 314). receiving from a first computing device (102; 300), through a browser extension application executed at the first computing device (102; 300), an indication of a financial service account associated with the first computing device (102; 300); detecting , through the browser extension application (106; 314), a payment field in a web page provided by the first computing device (102; 300) through a web browser application (108; 316; 600); in response to detecting the payment field, (i) generating a secure token mapped to the financial service account and (ii) transmitting , to a second computing device (118; 318; 606), an authentication request, through an authentication application (120; 332; 608) executed at the second computing device (118; 318; 606); in response to transmitting the authentication request, receiving an authentication response from the second computing device (118; 318; 606), through the authentication application (120; 332; 608); and in response to determining that the authentication response satisfies the authentication request, populating the payment field with the secure token through the browser extension application (106; 314).
A user equipment, UE, comprising: a transceiver arranged to communicate with a radio access network, RAN, node; and a processor arranged to register with a first communication system via the RAN node; detect a trigger to perform radio capability update for at least one radio access technology, RAT, the trigger comprising the UE starting a Dual Registration mode and registering with a second communication system; transition the UE to an idle state; and send a request to the first communication system to update UE radio capabilities while in the idle state, the request indicating that any already stored UE radio capabilities are to be updated. a transceiver arranged to communicate with a radio access network, RAN, node; and a processor arranged to register with a first communication system via the RAN node; detect a trigger to perform radio capability update for at least one radio access technology, RAT, the trigger comprising the UE starting a Dual Registration mode and registering with a second communication system; transition the UE to an idle state; and send a request to the first communication system to update UE radio capabilities while in the idle state, the request indicating that any already stored UE radio capabilities are to be updated.
A core selective switch for use in an optical node device that is included in a spatial channel optical network, the core selective switch comprising: a spatial demultiplexing unit; an optical switch; and an optical interconnect unit , wherein the spatial demultiplexing unit is a multi core fiber collimator array in which a plurality of multi core fiber collimators each comprising both a multi core fiber having S cores and a collimator lens are two-dimensionally arranged in a plane, the optical switch is a variable reflection angle mirror array in which an arrangement of S variable reflection angle mirrors (M 0 , M 1 , M 2 ) are two-dimensionally arranged in a plane in a manner corresponding with a core arrangement in the multi core fiber, the optical interconnect unit is a steering lens arranged between the multi core fiber collimator array and the variable reflection angle mirror array, and among a plurality of said multi core fibers in the multi core fiber collimator array, a beam light output from each core of an input multi core fiber is focused on a variable reflection angle mirror corresponding to the core to be reflected to couple to a corresponding core of a desired output multi core fiber. a spatial demultiplexing unit; an optical switch; and an optical interconnect unit , wherein the spatial demultiplexing unit is a multi core fiber collimator array in which a plurality of multi core fiber collimators each comprising both a multi core fiber having S cores and a collimator lens are two-dimensionally arranged in a plane, the optical switch is a variable reflection angle mirror array in which an arrangement of S variable reflection angle mirrors (M 0 , M 1 , M 2 ) are two-dimensionally arranged in a plane in a manner corresponding with a core arrangement in the multi core fiber, the optical interconnect unit is a steering lens arranged between the multi core fiber collimator array and the variable reflection angle mirror array, and among a plurality of said multi core fibers in the multi core fiber collimator array, a beam light output from each core of an input multi core fiber is focused on a variable reflection angle mirror corresponding to the core to be reflected to couple to a corresponding core of a desired output multi core fiber.
A steel sheet for cans, comprising a chemical composition containing, in mass%, C: 0.020 % or more and 0.130 % or less, Si: 0.04 % or less, Mn: 0.10 % or more and 1.20 % or less, P: 0.007 % or more and 0.100 % or less, S: 0.030 % or less, Al: 0.001 % or more and 0.100 % or less, N: more than 0.0120 % and 0.0200 % or less, Nb: 0.0060 % or more and 0.0300 % or less, and Cr: 0.040 % or less, with a balance being Fe and inevitable impurities, wherein a ratio of Nb content in precipitates of less than 20 nm in size to Nb content in all precipitates is 40 % or more, an average interval of all precipitates is 30 nm or less, an upper yield stress after heat treatment at 210 °C for 10 min is 500 MPa or more and 640 MPa or less, and a total elongation after the heat treatment is 10 % or more, whereby the ratio of Nb content in precipitates of less than 20 nm in size to Nb content in all precipitates as well as the average interval of all precipitates are determined according to the method disclosed in the description. a chemical composition containing, in mass%, C: 0.020 % or more and 0.130 % or less, Si: 0.04 % or less, Mn: 0.10 % or more and 1.20 % or less, P: 0.007 % or more and 0.100 % or less, S: 0.030 % or less, Al: 0.001 % or more and 0.100 % or less, N: more than 0.0120 % and 0.0200 % or less, Nb: 0.0060 % or more and 0.0300 % or less, and Cr: 0.040 % or less, with a balance being Fe and inevitable impurities, wherein a ratio of Nb content in precipitates of less than 20 nm in size to Nb content in all precipitates is 40 % or more, an average interval of all precipitates is 30 nm or less, an upper yield stress after heat treatment at 210 °C for 10 min is 500 MPa or more and 640 MPa or less, and a total elongation after the heat treatment is 10 % or more, whereby the ratio of Nb content in precipitates of less than 20 nm in size to Nb content in all precipitates as well as the average interval of all precipitates are determined according to the method disclosed in the description.
Method for playing back recorded video, the method comprising: receiving a video stream comprising a sequence of video frames with associated time stamps, determining encoder frame rate parameters for various temporal positions in the received video stream from time stamps of the received video frames or from encoder frame rate values embedded in the received video stream, changing, at temporal positions in the received video stream when the determined encoder frame rate parameter is smaller than a predetermined frame rate threshold, a playback frame rate to a frame rate being greater than the determined encoder frame rate parameter, changing, at temporal positions in the received video stream when the determined encoder frame rate parameter is greater than the predetermined frame rate threshold, a playback frame rate to a playback frame rate being equal to the determined encoder frame rate parameter, and playing back video frames of the received video stream in the changed playback frame rate. receiving a video stream comprising a sequence of video frames with associated time stamps, determining encoder frame rate parameters for various temporal positions in the received video stream from time stamps of the received video frames or from encoder frame rate values embedded in the received video stream, changing, at temporal positions in the received video stream when the determined encoder frame rate parameter is smaller than a predetermined frame rate threshold, a playback frame rate to a frame rate being greater than the determined encoder frame rate parameter, changing, at temporal positions in the received video stream when the determined encoder frame rate parameter is greater than the predetermined frame rate threshold, a playback frame rate to a playback frame rate being equal to the determined encoder frame rate parameter, and playing back video frames of the received video stream in the changed playback frame rate.
A multistation carousel for changing a tool (A) wherein a die of a press is placed, comprising: - a support structure provided with an upper frame supported by pillars , and a lower frame which rests directly on the ground; - a turntable , located below the upper frame and supported by the lower frame , rotated by rotation means housed in the lower frame , said turntable being divided into segments each of which corresponds to a station : - a loading/unloading station of the tool (A) from the press; - a standby station ; - a die changing station ; - a work station , the carousel being characterised in that - the work station is equipped with: -- an outer frame adjacent to the turntable for supporting the tool (A) during processing; -- a handling device attached to the upper frame to permit the radial and/or vertical handling of the tool (A). - a support structure provided with an upper frame supported by pillars , and a lower frame which rests directly on the ground; - a turntable , located below the upper frame and supported by the lower frame , rotated by rotation means housed in the lower frame , said turntable being divided into segments each of which corresponds to a station : - a loading/unloading station of the tool (A) from the press; - a standby station ; - a die changing station ; - a work station , the carousel being characterised in that - the work station is equipped with: -- an outer frame adjacent to the turntable for supporting the tool (A) during processing; -- a handling device attached to the upper frame to permit the radial and/or vertical handling of the tool (A). - a loading/unloading station of the tool (A) from the press; - a standby station ; - a die changing station ; - a work station , the carousel being characterised in that - the work station is equipped with: -- an outer frame adjacent to the turntable for supporting the tool (A) during processing; -- a handling device attached to the upper frame to permit the radial and/or vertical handling of the tool (A). -- an outer frame adjacent to the turntable for supporting the tool (A) during processing; -- a handling device attached to the upper frame to permit the radial and/or vertical handling of the tool (A).
A method performed by a user equipment, in the following also referred to as UE, comprising: maintaining at least one serving beam by beam tracking the at least one serving beam and when needed, communicating with the network to change the at least one serving beam; performing an uplink, in the following also referred to as UL, transmission of data stored in an uplink hybrid automatic repeat request, in the following also referred to as UL HARQ, buffer; and initiating a beam recovery procedure in response to a beam tracking failure, wherein the UE determines that the beam tracking failure is detected if the UE determines that the at least one serving beam becomes invalid, wherein the UE determines that the at least one serving beam becomes invalid if the UE does not receive a signal or an indication via the at least one serving beam within a predetermined period of time; performing a UL retransmission of the data stored in the UL HARQ buffer after successful completion of the beam recovery procedure, wherein the beam recovery procedure is a fast beam recovery procedure characterized by not releasing a RRC connection and wherein the UE prevents the flushing of the UL HARQ buffer in response to the occurrence of the beam tracking failure. maintaining at least one serving beam by beam tracking the at least one serving beam and when needed, communicating with the network to change the at least one serving beam; performing an uplink, in the following also referred to as UL, transmission of data stored in an uplink hybrid automatic repeat request, in the following also referred to as UL HARQ, buffer; and initiating a beam recovery procedure in response to a beam tracking failure, wherein the UE determines that the beam tracking failure is detected if the UE determines that the at least one serving beam becomes invalid, wherein the UE determines that the at least one serving beam becomes invalid if the UE does not receive a signal or an indication via the at least one serving beam within a predetermined period of time; performing a UL retransmission of the data stored in the UL HARQ buffer after successful completion of the beam recovery procedure, wherein the beam recovery procedure is a fast beam recovery procedure characterized by not releasing a RRC connection and wherein the UE prevents the flushing of the UL HARQ buffer in response to the occurrence of the beam tracking failure.
A tetrapyrrolic compound of the formulas 1, 2, 3, 4, 5 or 6: wherein: A and B are selected from the group consisting of: R 2 is -O-, -NH- or -S-; R 3 is a substituted or unsubstituted alkyl group or fluoroalkyl group consisting of 0-15 carbon atoms; M is Zn, Cu, Fe, Co, or Pd forming a metallated tetrapyrrole or void forming a metal-free tetrapyrrole; CL is a cleavable linker comprising a disulfide, acetal, ester or imine; L is a functional group comprising maleimide, cyclooctyne, alkyne, alkene, amine, carboxylic acid, hydroxyl, thiol, azide or acid chloride or a targeting group comprising carbohydrates (e.g. mannose, mannose-6-phosphate, galactose), antibodies (e.g. IgG, IgA, IgM, IgD, IgE antibodies), proteins (e.g. transferrin), oligopeptides (e.g. cyclic and acyclic RGD-containing oligopeptides), oligonucleotides (e.g. aptamers) or vitamins (e.g. folate); P is a polymeric structure selected from the group consisting of hyperbranched polyglycerol (hPG), poly-ε-caprolactone (PCL), polylactic acid (PLA), polybutyl cyanoacrylate (PBCA), polyhexyl cyanoacrylate (PHCA), polystyrene (PS) and poly(methyl methacrylate) (PMMA); R 1 is a substituent either in the meta- or para- position of the phenyl ring selected from the group consisting of -OH, -COOH, -NH 2 , - COOX, -NHX, -OX, -NH-Y-COOH, and -CO-Y-NH 2 , wherein X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n=1-30 or a carbohydrate moiety; and Y is peptides or oligopeptides wherein n=1-30. A and B are selected from the group consisting of: R 2 is -O-, -NH- or -S-; R 3 is a substituted or unsubstituted alkyl group or fluoroalkyl group consisting of 0-15 carbon atoms; M is Zn, Cu, Fe, Co, or Pd forming a metallated tetrapyrrole or void forming a metal-free tetrapyrrole; CL is a cleavable linker comprising a disulfide, acetal, ester or imine; L is a functional group comprising maleimide, cyclooctyne, alkyne, alkene, amine, carboxylic acid, hydroxyl, thiol, azide or acid chloride or a targeting group comprising carbohydrates (e.g. mannose, mannose-6-phosphate, galactose), antibodies (e.g. IgG, IgA, IgM, IgD, IgE antibodies), proteins (e.g. transferrin), oligopeptides (e.g. cyclic and acyclic RGD-containing oligopeptides), oligonucleotides (e.g. aptamers) or vitamins (e.g. folate); P is a polymeric structure selected from the group consisting of hyperbranched polyglycerol (hPG), poly-ε-caprolactone (PCL), polylactic acid (PLA), polybutyl cyanoacrylate (PBCA), polyhexyl cyanoacrylate (PHCA), polystyrene (PS) and poly(methyl methacrylate) (PMMA); R 1 is a substituent either in the meta- or para- position of the phenyl ring selected from the group consisting of -OH, -COOH, -NH 2 , - COOX, -NHX, -OX, -NH-Y-COOH, and -CO-Y-NH 2 , wherein X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n=1-30 or a carbohydrate moiety; and Y is peptides or oligopeptides wherein n=1-30.
Chassis-subframe arrangement for a vehicle on a preferably self-supporting vehicle body for improving crash protection, comprising a chassis-subframe which is attached to the vehicle body and which is connected via a plurality of fastening means to highly loadable load-bearing body parts , wherein the chassis subframe is connected to the load-bearing body parts by at least one fastening means indirectly via a sacrificial plate , wherein the sacrificial plate is designed such that, from a specific relative force acting substantially in the vehicle longitudinal direction between the chassis subframe and the sacrificial plate , the fastening means is pulled out of said sacrificial plate, immediately in the case of a displacement movement of the chassis subframe occurring, to the rear, viewed in the vehicle longitudinal direction, wherein the fastening means connected to the sacrificial plate is arranged by means of the sacrificial plate relative to the load-bearing body parts such that, after being pulled out, the fastening means is able to move freely to the rear in the vehicle longitudinal direction, without interacting with the, or other, load-bearing body parts , characterized in that the sacrificial plate has at least two lateral fastening flanges which extend substantially in the vehicle longitudinal direction and are each fixedly connected to load-bearing body parts extending to the side of the sacrificial plate in the vehicle longitudinal direction, wherein the at least one fastening means is connected to the sacrificial plate at a first fastening point which is arranged between the laterally extending fastening flanges .