mhurhangee/patent-ind-claim-en huggingface dataset:
A packet sending method performed by a router, the method comprising the steps of: • receiving (steps 101, 201) a service packet from a user, wherein the service packet comprises Internet Protocol, IP, 5-tuple information; • acquiring a user identifier by determining, according to an inbound interface of the service packet, the user identifier of a user that has sent the service packet, wherein the user identifier is corresponding to the inbound interface; • acquiring the IP 5-tuple information by parsing the service packet; • determining (steps 102, 202), in a flow table of the router, a flow group identifier and information about a next-hop service switching entity that are matched with the user identifier and the IP 5-tuple information, wherein the flow table comprises multiple entries, and each entry comprises a user identifier, IP 5-tuple information, a flow group identifier, and information about a next-hop service switching entity, wherein the flow group identifier identifies a flow group; • encapsulating the service packet to obtain a processed service packet, the processed service packet including the user identifier, the flow group identifier, a router identifier, and a processing result, and • sending (steps 103, 207) the processed service packet to the next-hop service switching entity according to the information about the next-hop service switching entity. • receiving (steps 101, 201) a service packet from a user, wherein the service packet comprises Internet Protocol, IP, 5-tuple information; • acquiring a user identifier by determining, according to an inbound interface of the service packet, the user identifier of a user that has sent the service packet, wherein the user identifier is corresponding to the inbound interface; • acquiring the IP 5-tuple information by parsing the service packet; • determining (steps 102, 202), in a flow table of the router, a flow group identifier and information about a next-hop service switching entity that are matched with the user identifier and the IP 5-tuple information, wherein the flow table comprises multiple entries, and each entry comprises a user identifier, IP 5-tuple information, a flow group identifier, and information about a next-hop service switching entity, wherein the flow group identifier identifies a flow group; • encapsulating the service packet to obtain a processed service packet, the processed service packet including the user identifier, the flow group identifier, a router identifier, and a processing result, and • sending (steps 103, 207) the processed service packet to the next-hop service switching entity according to the information about the next-hop service switching entity.
A pellet production method comprising: an operation in which a strand comprising a glass-fiber-reinforced polyamide resin composition containing 50 mass% to 80 mass% of glass fiber is extruded from an orifice at a die ; an operation in which the strand is drawn into water within a tank and is cooled; and an operation in which the cooled strand is cut to obtain a pellet; wherein an angle (δ 1 ) of incidence at which the strand enters the water within the tank is not less than 70° but is less than 90°; and wherein a ratio of a diameter of the pellet to a diameter of the orifice, i.e. diameter of the pellet / diameter of the orifice, is 0.65 to 0.97. an operation in which a strand comprising a glass-fiber-reinforced polyamide resin composition containing 50 mass% to 80 mass% of glass fiber is extruded from an orifice at a die ; an operation in which the strand is drawn into water within a tank and is cooled; and an operation in which the cooled strand is cut to obtain a pellet; wherein an angle (δ 1 ) of incidence at which the strand enters the water within the tank is not less than 70° but is less than 90°; and wherein a ratio of a diameter of the pellet to a diameter of the orifice, i.e. diameter of the pellet / diameter of the orifice, is 0.65 to 0.97.
Optoelectronic measuring device configured for measuring the position of a first object with respect to a second object, one of the objects being movable with respect to the other object along a longitudinal axis (X), in two opposite measuring directions (A1, A2), the optoelectronic measuring device comprising a graduated scale , a hollow profile comprising a main body (4.1) defining an inner cavity, and a channel (4.0) arranged in said inner cavity, the channel (4.0) extending along said longitudinal axis (X) and said channel (4.0) being configured for housing the graduated scale , the optoelectronic measuring device also comprising a scale fixing device configured for immobilizing the graduated scale at least in the longitudinal axis (X), in the two opposite measuring directions (A1, A2), when housed in the channel (4.0), and a profile fixing device configured for fixing the hollow profile to the first object , the hollow profile comprising a mounting face (4.9) configured for being arranged facing the first object , the scale fixing device and the profile fixing device being accessible from the face (4.8) of said hollow profile opposite said mounting face (4.9) to perform the corresponding fixing operation, the scale fixing device comprising an elongated element (1.0) with a longitudinal axis (1.01) extending in a scale fixing direction (B1) and the profile fixing device comprising a respective elongated element (2.0) with a longitudinal axis (2.01) extending in a profile fixing direction (B2), the scale fixing device being configured for performing the fixing of the graduated scale with a longitudinal movement in the scale fixing direction (B1) of its elongated element (1.0) and the profile fixing device being configured for performing the fixing of the hollow profile with a longitudinal movement in the profile fixing direction (B2) of its elongated element (2.0), characterized in that the scale fixing device further comprises an additional element (1.1) configured for exerting pressure on the graduated scale arranged in the channel (4.0) of the hollow profile , in an anchoring direction (C), configured for immobilizing said graduated scale in both opposing measuring directions (A1 A2), the anchoring direction (C) being different from both measuring directions (A1, A2), and perpendicular to the scale fixing direction (B1) and/or to any of the measuring directions (A1, A2), and the elongated element (1.0) being configured for causing the movement of said additional element (1.1) in the anchoring direction (C) when it is actuated in the scale fixing direction (B1) such that the graduated scale is immobilized in both measuring directions (A1, A2) with said only actuation.
A method for detecting human hepatitis C virus (HCV) in a sample suspected of containing HCV, which method comprises: (a) amplifying a first target HCV nucleic acid sequence present in a sample obtained from a human by RT-PCR using (i) a forward primer oligonucleotide sequence comprising SEQ ID NO: 1 or SEQ ID NO: 5; and (ii) a reverse primer oligonucleotide sequence comprising SEQ ID NO: 2, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, or SEQ ID NO: 9; wherein RT-PCR cycling is completed in less than one hour, (b) hybridizing to the first target HCV nucleic acid sequence (i) a first probe oligonucleotide sequence comprising SEQ ID NO: 3, SEQ ID NO: 10, SEQ ID NO: 11, or SEQ ID NO: 12 and a detectable label, and (ii) a second probe oligonucleotide sequence comprising SEQ ID NO: 4, SEQ ID NO: 13, or SEQ ID NO: 14 and a detectable label, (c) detecting hybridization of the first and second probe oligonucleotide sequences to the first target HCV nucleic acid sequence by assessing a signal from each of the detectable labels, whereby (i) the presence of the signals indicates hybridization of the first and second probe oligonucleotide sequences to the first target HCV nucleic acid sequence and the presence of HCV in the sample, and (ii) the absence of the signals indicates the absence of HCV in the sample. (a) amplifying a first target HCV nucleic acid sequence present in a sample obtained from a human by RT-PCR using (i) a forward primer oligonucleotide sequence comprising SEQ ID NO: 1 or SEQ ID NO: 5; and (ii) a reverse primer oligonucleotide sequence comprising SEQ ID NO: 2, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, or SEQ ID NO: 9; wherein RT-PCR cycling is completed in less than one hour, (b) hybridizing to the first target HCV nucleic acid sequence (i) a first probe oligonucleotide sequence comprising SEQ ID NO: 3, SEQ ID NO: 10, SEQ ID NO: 11, or SEQ ID NO: 12 and a detectable label, and (ii) a second probe oligonucleotide sequence comprising SEQ ID NO: 4, SEQ ID NO: 13, or SEQ ID NO: 14 and a detectable label, (c) detecting hybridization of the first and second probe oligonucleotide sequences to the first target HCV nucleic acid sequence by assessing a signal from each of the detectable labels, whereby (i) the presence of the signals indicates hybridization of the first and second probe oligonucleotide sequences to the first target HCV nucleic acid sequence and the presence of HCV in the sample, and (ii) the absence of the signals indicates the absence of HCV in the sample. (i) the presence of the signals indicates hybridization of the first and second probe oligonucleotide sequences to the first target HCV nucleic acid sequence and the presence of HCV in the sample, and (ii) the absence of the signals indicates the absence of HCV in the sample.
A welding system (10; 100), comprising: a welding power supply (12; 110) configured to convert input power to welding power; a wire feeder (60; 134) configured to feed welding wire to a welding torch ; and control circuitry (32; 212) configured to: in response to an initiation of a welding process, control the wire feeder to feed the welding wire at a first rate while controlling the welding power supply to output the welding power to initiate a welding arc; and in response to initiation of the welding arc, control the wire feeder to increase a feed rate of the wire feeder from the first rate to a second rate; characterized in that the control circuitry (32; 212) is configured to in response to determining that a temperature profile of a heated portion of the welding wire has stabilized, control the wire feeder (60; 134) to change the feed rate of the wire feeder from the second rate to a target wire feed speed; and in that the control circuitry is configured to: monitor a welding current of the welding power; and determine that the temperature profile of the heated portion has stabilized in response to the welding current reaching a local minimum. a welding power supply (12; 110) configured to convert input power to welding power; a wire feeder (60; 134) configured to feed welding wire to a welding torch ; and control circuitry (32; 212) configured to: in response to an initiation of a welding process, control the wire feeder to feed the welding wire at a first rate while controlling the welding power supply to output the welding power to initiate a welding arc; and in response to initiation of the welding arc, control the wire feeder to increase a feed rate of the wire feeder from the first rate to a second rate; in response to an initiation of a welding process, control the wire feeder to feed the welding wire at a first rate while controlling the welding power supply to output the welding power to initiate a welding arc; and in response to initiation of the welding arc, control the wire feeder to increase a feed rate of the wire feeder from the first rate to a second rate; characterized in that the control circuitry (32; 212) is configured to in response to determining that a temperature profile of a heated portion of the welding wire has stabilized, control the wire feeder (60; 134) to change the feed rate of the wire feeder from the second rate to a target wire feed speed; and in that the control circuitry is configured to: monitor a welding current of the welding power; and determine that the temperature profile of the heated portion has stabilized in response to the welding current reaching a local minimum. monitor a welding current of the welding power; and determine that the temperature profile of the heated portion has stabilized in response to the welding current reaching a local minimum.
Bicycle crankarm for mounting on the bicycle transmission side, comprising a main body having a length (Lp) measured along a length direction (L) from a rotation axis (X) to a pedal axis (Y1) of the crankarm , said crankarm comprising at least one stress/strain detector for a torque meter or a power meter, oriented along the length direction (L), said at least one detector is fixed at a distance (Do), measured from the center (C) of said at least one stress/strain detector to the rotation axis (X) of the crankarm , such that the ratio between said distance (Do) and said length (Lp) is comprised in the range 0.45-0.65 and characterised in that a sensitivity ratio (Sr) between the sensitivity of the detector to stresses/strains originating from forces/torques applied to the crankarm at the pedal axis (Y1) and the sensitivity of the detector to stresses/strains originating from forces/torques applied to the crankarm at the rotation axis (X) is at least 90% of a maximum value (Sr_max) of such a sensitivity ratio (Sr) along the length (Lp), wherein the sensitivity is the size of the output signal of the detector , or of a reading circuit thereof, per unit force.
A bearing seal assembly of a rotary machine, the bearing seal assembly comprising: an inner shaft ; an outer shaft disposed concentrically around and radially outward from the inner shaft , wherein a space between the inner shaft and the outer shaft forms an annulus void ; an oil inlet port in the inner shaft through which lubricating oil can enter the annulus void ; a grooved structure disposed in a radial surface of the outer shaft , wherein the grooved structure forms an oil retaining reservoir configured to retain a lubricating oil upon shutdown of the rotary machine, the grooved structure includes a first groove and a second groove , a wall separates the first groove and the second groove , and the wall is configured so that excess lubricating oil in the first groove flows over the wall and into the second groove ; a bearing located external to the outer shaft ; and an oil outlet port disposed in the outer shaft and connected to the grooved structure, the oil outlet port configured to supply the lubricating oil from the grooved structure to the bearing , wherein the grooved structure is disposed in an inner radial surface of the outer shaft and the oil outlet port is connected to the second groove . an inner shaft ; an outer shaft disposed concentrically around and radially outward from the inner shaft , wherein a space between the inner shaft and the outer shaft forms an annulus void ; an oil inlet port in the inner shaft through which lubricating oil can enter the annulus void ; a grooved structure disposed in a radial surface of the outer shaft , wherein the grooved structure forms an oil retaining reservoir configured to retain a lubricating oil upon shutdown of the rotary machine, the grooved structure includes a first groove and a second groove , a wall separates the first groove and the second groove , and the wall is configured so that excess lubricating oil in the first groove flows over the wall and into the second groove ; a bearing located external to the outer shaft ; and an oil outlet port disposed in the outer shaft and connected to the grooved structure, the oil outlet port configured to supply the lubricating oil from the grooved structure to the bearing , wherein the grooved structure is disposed in an inner radial surface of the outer shaft and the oil outlet port is connected to the second groove .
A knitted component comprising: a first knit layer comprising a first yarn having a first shrinkage rate when subjected to a stimulus; a second knit layer at least partially coextensive with the first knit layer , the second knit layer comprising a second yarn having a second shrinkage rate when subjected to the stimulus, the second shrinkage rate being less than the first shrinkage rate; and a third yarn at least partially positioned within a pocket formed between the first and second knit layers , the third yarn comprising a monofilament yarn and a high tenacity yarn; wherein the third yarn secures to the first knit layer at a first location within the pocket and to the second knit layer at a second location within the pocket , wherein the third yarn forms a third layer ; characterized in that the first knit layer and the second knit layer are secured to each other at a second area adjacent to the pocket ; and in that , in the second area the first knit layer and the second knit layer are at least partially coextensive and/or overlapping, and the third layer floats or is inlaid between the first knit layer and the second knit layer . a first knit layer comprising a first yarn having a first shrinkage rate when subjected to a stimulus; a second knit layer at least partially coextensive with the first knit layer , the second knit layer comprising a second yarn having a second shrinkage rate when subjected to the stimulus, the second shrinkage rate being less than the first shrinkage rate; and a third yarn at least partially positioned within a pocket formed between the first and second knit layers , the third yarn comprising a monofilament yarn and a high tenacity yarn; wherein the third yarn secures to the first knit layer at a first location within the pocket and to the second knit layer at a second location within the pocket , wherein the third yarn forms a third layer ; characterized in that the first knit layer and the second knit layer are secured to each other at a second area adjacent to the pocket ; and in that , in the second area the first knit layer and the second knit layer are at least partially coextensive and/or overlapping, and the third layer floats or is inlaid between the first knit layer and the second knit layer .
A compound or a pharmaceutical composition comprising the compound for use in a method of treating neurodegenerative damage caused by traumatic brain injury, wherein the compound is represented by the following structural formula: or a pharmaceutically acceptable salt thereof.
Nutritional composition comprising at least one fucosylated oligosaccharide and at least one N-acetylated oligosaccharide for use in promoting and/or inducing in infants or young children a global microbiota in the gut that is closer to the global microbiota in the gut of infants or young children fed exclusively with human breast milk, in comparison to the global microbiota in the gut of infants or young children fed predominantly or exclusively with a conventional nutritional composition not comprising said oligosaccharides.
An airbag for a vehicle occupant restraint system, comprising an airbag panel which defines an inflatable airbag volume, a tether which extends in the interior of the airbag through the inflatable airbag volume, a discharge port which is formed in the airbag panel , and a discharge port closure for closing the discharge port , wherein the tether extends from a first tether end tightly connected to the airbag panel in the direction of the discharge port to an opposite second tether end , wherein the discharge port closure is connected both to the second tether end and the airbag panel , and wherein the tether has a two-ply design and includes two strap layers between a first branching point and a second branching point , wherein the first strap layer and the second strap layer are not connected between the two branching points , characterized in that a control strap is provided which extends transversely to the tether through the inflatable airbag volume and includes two control strap portions , wherein a first control strap portion is fastened to the airbag panel as well as to the first strap layer and a second control strap portion is fastened to the airbag panel as well as to the second strap layer . an airbag panel which defines an inflatable airbag volume, a tether which extends in the interior of the airbag through the inflatable airbag volume, a discharge port which is formed in the airbag panel , and a discharge port closure for closing the discharge port , wherein the tether extends from a first tether end tightly connected to the airbag panel in the direction of the discharge port to an opposite second tether end , wherein the discharge port closure is connected both to the second tether end and the airbag panel , and wherein the tether has a two-ply design and includes two strap layers between a first branching point and a second branching point , wherein the first strap layer and the second strap layer are not connected between the two branching points , characterized in that a control strap is provided which extends transversely to the tether through the inflatable airbag volume and includes two control strap portions , wherein a first control strap portion is fastened to the airbag panel as well as to the first strap layer and a second control strap portion is fastened to the airbag panel as well as to the second strap layer .
A method of forming score lines on a blank, comprising steps of: forming a sheet-shaped resin blank able to be formed into a box , the box including outer longitudinal edges which are bent into rounded edges and extend in a longitudinal direction of the box , and outer transverse edges perpendicular to the outer longitudinal edges, wherein said blank forming step includes a process of forming transverse fold lines to be bent to form the outer transverse edges and a process of cutting out for said blank ; and forming a plurality of score lines in score line forming areas of said blank which are to be bent to form the outer longitudinal edges of the box, to extend in a direction in which the rounded edges should extend, characterized in that said score line forming step is performed after said blank forming step has completed, and in said score line forming step, said score lines are formed in a manner causing a plurality of grooves to be produced on a back side of each score line forming area , parallel to said score lines , through plastic deformation. forming a sheet-shaped resin blank able to be formed into a box , the box including outer longitudinal edges which are bent into rounded edges and extend in a longitudinal direction of the box , and outer transverse edges perpendicular to the outer longitudinal edges, wherein said blank forming step includes a process of forming transverse fold lines to be bent to form the outer transverse edges and a process of cutting out for said blank ; and forming a plurality of score lines in score line forming areas of said blank which are to be bent to form the outer longitudinal edges of the box, to extend in a direction in which the rounded edges should extend, characterized in that said score line forming step is performed after said blank forming step has completed, and in said score line forming step, said score lines are formed in a manner causing a plurality of grooves to be produced on a back side of each score line forming area , parallel to said score lines , through plastic deformation.