mhurhangee/ep-ind-claims huggingface dataset:
An identity verification method based on a voiceprint, comprising: receiving voice data containing an unknown voice; and extracting a voiceprint of the unknown voice from the voice data using a neural network-based voiceprint extractor which is obtained through pre-training, wherein a voiceprint is a vector characterizing the voice of a person, wherein the identity verification method is characterized in that it further comprises: concatenating the extracted voiceprint with a pre-stored voiceprint to obtain a concatenated voiceprint; and performing judgment on the concatenated voiceprint using a pre-trained classification model, to verify whether the extracted voiceprint and the pre-stored voiceprint are from the same person. receiving voice data containing an unknown voice; and extracting a voiceprint of the unknown voice from the voice data using a neural network-based voiceprint extractor which is obtained through pre-training, wherein a voiceprint is a vector characterizing the voice of a person, wherein the identity verification method is characterized in that it further comprises: concatenating the extracted voiceprint with a pre-stored voiceprint to obtain a concatenated voiceprint; and performing judgment on the concatenated voiceprint using a pre-trained classification model, to verify whether the extracted voiceprint and the pre-stored voiceprint are from the same person. concatenating the extracted voiceprint with a pre-stored voiceprint to obtain a concatenated voiceprint; and performing judgment on the concatenated voiceprint using a pre-trained classification model, to verify whether the extracted voiceprint and the pre-stored voiceprint are from the same person.
An adjustable pouch (20, 76) for holding an article (64, 72), comprising: an arrangement of panels (22, 24, 26, 28, 30, 56) defining an interior cavity for receiving the article (64, 72); a tightening mechanism coupled to the arrangement (22, 24, 26, 28, 30, 56), the tightening mechanism comprising a rotatable knob, wherein rotation of the knob in a tightening direction tightens at least one lace (46, 48) to pull at least one of the panels (22, 24, 26, 28, 30, 56) of the arrangement of the panels (22, 24, 26, 28, 30, 56) toward another of the panels (22, 24, 26, 28, 30, 56) thereof to tighten the arrangement of panels (22, 24, 26, 28, 30, 56) about the article (64, 72) when received in the interior cavity; and the arrangement of panels (22, 24, 26, 28, 30, 56) including overlaying panels (22, 24, 26, 28, 30, 56) bounding at least one cavity separate from the interior cavity, containing and concealing the at least one lace (46, 48) at least largely from external observation while isolating the at least one lace (46, 48) from the article (64, 72), wherein the at least one of the panels (22, 24, 26, 28, 30, 56) comprises two panels (22, 24, 26, 28, 30, 56) that each comprises a tongue (68, 70) extending through an opening into the at least one cavity separate from the interior cavity and disposed in opposing relation within the at least one cavity separate from the interior cavity such that the tongues (68, 70) will be pulled towards each other when the at least one lace (46, 48) is tightened to pull the two of the panels (22, 24, 26, 28, 30, 56) to tighten the arrangement of panels (22, 24, 26, 28, 30, 56) about the article (64, 72) when received in the interior cavity.
A method comprising: receiving network communications; and analyzing the network communications using multi-dimensional content profiling; the multi-dimensional content profiling providing at least content reassembly, scanning and recognition to the network communications in real time; wherein the multi-dimensional content profiling comprises: loading one or more profiles, wherein the one or more profiles each comprise an expected set of statistical characteristics of data; continuously receiving input data from one or more decoders; determining a probabilistic measure of membership of the input data relative to the one or more profiles; comparing the probabilistic measure with a threshold requirement for each of the one or more profiles; and terminating the network communications if the probabilistic measure meets the threshold requirement. receiving network communications; and analyzing the network communications using multi-dimensional content profiling; the multi-dimensional content profiling providing at least content reassembly, scanning and recognition to the network communications in real time; wherein the multi-dimensional content profiling comprises: loading one or more profiles, wherein the one or more profiles each comprise an expected set of statistical characteristics of data; continuously receiving input data from one or more decoders; determining a probabilistic measure of membership of the input data relative to the one or more profiles; comparing the probabilistic measure with a threshold requirement for each of the one or more profiles; and terminating the network communications if the probabilistic measure meets the threshold requirement. loading one or more profiles, wherein the one or more profiles each comprise an expected set of statistical characteristics of data; continuously receiving input data from one or more decoders; determining a probabilistic measure of membership of the input data relative to the one or more profiles; comparing the probabilistic measure with a threshold requirement for each of the one or more profiles; and terminating the network communications if the probabilistic measure meets the threshold requirement.
Coolant circuit for a vehicle, having a pump, an engine to be cooled, and a radiator, characterized in that a first flow control unit, which comprises a first valve and a first actuator and which, as a function of a temperature of a coolant, in a stepless manner thermostatically controls in an open loop or a closed loop a flow of the coolant, is provided in a main duct between the engine and the radiator, and a bypass duct, which is fluidically connected in parallel with the radiator, and after the radiator opens into the main duct, branches off the main duct between the engine and the first flow control unit, wherein a second flow control unit, which comprises a second valve and is configured such that the second flow control unit opens or closes the bypass duct as a function of the temperature of the coolant, is provided in the bypass duct, wherein the first valve is coupled to the first actuator and is adjusted in a stepless manner by the latter as a function of the coolant temperature, and the second valve is coupled to a second actuator and is adjusted in a stepless manner by the latter as a function of the coolant temperature, characterized in that a first temperature sensor is connected to the first flow control unit or the second flow control unit via a signal transmission, and the two flow control units (22, 26) are in a communication link and exchange bi-directional information about their condition in order to coordinate the opening and closing of one flow control unit with the closing and opening of the other flow control unit. a first flow control unit, which comprises a first valve and a first actuator and which, as a function of a temperature of a coolant, in a stepless manner thermostatically controls in an open loop or a closed loop a flow of the coolant, is provided in a main duct between the engine and the radiator, and a bypass duct, which is fluidically connected in parallel with the radiator, and after the radiator opens into the main duct, branches off the main duct between the engine and the first flow control unit, wherein a second flow control unit, which comprises a second valve and is configured such that the second flow control unit opens or closes the bypass duct as a function of the temperature of the coolant, is provided in the bypass duct, wherein the first valve is coupled to the first actuator and is adjusted in a stepless manner by the latter as a function of the coolant temperature, and the second valve is coupled to a second actuator and is adjusted in a stepless manner by the latter as a function of the coolant temperature, characterized in that a first temperature sensor is connected to the first flow control unit or the second flow control unit via a signal transmission, and the two flow control units (22, 26) are in a communication link and exchange bi-directional information about their condition in order to coordinate the opening and closing of one flow control unit with the closing and opening of the other flow control unit.
Bobbin changing device for feeding bobbins to and/or removing bobbins from a processing device which can wind a strand-like material onto a bobbin and/or from a bobbin, wherein the bobbin changing device has at least one conveyor device, in particular a conveyor belt (31, 32), wherein the bobbin changing device has a swivel fork which is suited for feeding bobbins to and/or removing bobbins from such a processing device and for feeding bobbins to and/or removing bobbins from the conveyor device, wherein the swivel fork can be swiveled about a swivel axis which is substantially oriented vertically, wherein at least one bobbin receiving site (21, 22) is formed on the swivel fork on which a bobbin can stand in such a way that the bobbin follows a swiveling movement of the swivel fork about the swivel axis, and wherein the vertical position of the swivel fork can be changed, in particular that the swivel fork can be moved into at least one lower, one middle and one upper height position (BOTTOM, MIDDLE, TOP), characterized in that at least in the lowermost height position (BOTTOM) of the swivel fork, the surface of the at least one bobbin receiving site (21, 22) of the swivel fork is below the surface of the conveyor device.
Processing device for workpieces, which preferably consist at least in sections of wood, derived timber products, composite materials or plastics, which workpieces are provided with a coating material, having: a scanning element, in particular a scanning shoe or a scanning roller, having a scanning surface for supporting a workpiece, which scanning surface has a run-in section and a run-out section, a movement device for moving a workpiece and the scanning element relative to one another so that the workpiece is guided along the scanning surface, characterised in that a cutting tool, preferably a knife, is arranged adjacent the run-out section of the scanning surface, wherein a cutting edge of the cutting tool, looked at in a side view, projects beyond the scanning surface in the run-out section of the scanning element by a relative distance (x), wherein the run-out section is curved or inclined or concludes as a rectangular shoulder or like a step so that the cutting edge of the cutting tool, defined by the relative distance (x), engages with a drawn shaving. a scanning element, in particular a scanning shoe or a scanning roller, having a scanning surface for supporting a workpiece, which scanning surface has a run-in section and a run-out section, a movement device for moving a workpiece and the scanning element relative to one another so that the workpiece is guided along the scanning surface, characterised in that a cutting tool, preferably a knife, is arranged adjacent the run-out section of the scanning surface, wherein a cutting edge of the cutting tool, looked at in a side view, projects beyond the scanning surface in the run-out section of the scanning element by a relative distance (x), wherein the run-out section is curved or inclined or concludes as a rectangular shoulder or like a step so that the cutting edge of the cutting tool, defined by the relative distance (x), engages with a drawn shaving.
A secondary battery pouch, wherein microcapsules of a core-shell structure are applied between an inner resin layer of an upper pouch and an inner resin layer of a lower pouch along a to-be-folded portion of the pouch, and the microcapsules include an elastic thermoplastic resin in the core thereof, wherein at least a portion of the shell is designed to be melted or destructed by thermal bonding process at from 170 °C to 200 °C and wherein the elastic thermoplastic resin has a property of melting at from 170 °C to 200 °C and then curing.
A vibration-absorbing boss adapted to being provided at a hub part of a fan while being coupled to a rotating shaft of a motor to absorb vibration due to rotation of the motor, the vibration-absorbing boss comprising: a first boss member having a bore for insertion of the rotating shaft of the motor; a second boss member configured to surround the first boss member; and a vibration-absorbing member provided between the first boss member and the second boss member to absorb vibration due to rotation of the motor, wherein the second boss member includes a body portion coming into close contact with the vibration-absorbing member and a protruding portion configured to extend first radially from the body portion and then downward and having a groove formed between the body portion and a downwardly extending portion thereof, and wherein the first and second boss members (20; 30) are injection molded, characterized in that the vibration-absorbing member is injection molded by inserting the first and second boss members (20; 30) into a mold for the vibration-absorbing member, and the groove is adapted to receive a resin upon forming the hub part of the fan at an outer periphery of the second boss member by injection molding to allow the vibration-absorbing boss and the hub part to be coupled to each other. a first boss member having a bore for insertion of the rotating shaft of the motor; a second boss member configured to surround the first boss member; and a vibration-absorbing member provided between the first boss member and the second boss member to absorb vibration due to rotation of the motor, wherein the second boss member includes a body portion coming into close contact with the vibration-absorbing member and a protruding portion configured to extend first radially from the body portion and then downward and having a groove formed between the body portion and a downwardly extending portion thereof, and wherein the first and second boss members (20; 30) are injection molded, characterized in that the vibration-absorbing member is injection molded by inserting the first and second boss members (20; 30) into a mold for the vibration-absorbing member, and the groove is adapted to receive a resin upon forming the hub part of the fan at an outer periphery of the second boss member by injection molding to allow the vibration-absorbing boss and the hub part to be coupled to each other.
Endoscopic device (16a-j) having at least one shaft (26a; 26b; 26c; 26d; 26i; 26j), which has at least one portion deflectable in at least one plane, and having at least one deflection mechanism (46a-j), which is configured to deflect the deflectable portion of the shaft (26a; 26b; 26c; 26d; 26i; 26j) and comprises, arranged in series, at least one first connection member (48a; 48c; 48e; 48i) and at least one second connection member (50a; 50c; 50e; 50f; 50g; 50h; 50i) interacting for a deflection with the first connection member (48a; 48c; 48e; 48i), and at least one flexurally slack control train (80a; 80d; 80e) which is configured for adjustment of a deflection of the deflectable portion, wherein at least the second connection member (50a; 50c; 50e; 50f; 50g; 50h; 50i) comprises at least one connection member main body (218e; 218f; 218g; 218h), which comprises a passageway (82a; 82e; 82f; 82g; 82h) for guiding the control train (80a; 80d; 80e), and at least one radial opening (216e; 216f; 216g; 216h) which is connected to the passageway (82a; 82e; 82f; 82g; 82h) and via which the control train (80a; 80d; 80e) is insertable into the passageway (82a; 82e; 82f; 82g; 82h), the connection member main body (218e; 218f; 218g; 218h) has an at least partially radially extending connection recess (220e; 220f), which connects the passageway (82a; 82e; 82f; 82g; 82h) and the radial opening (216e; 216f; 216g; 216h) to each other, characterized in that the connection recess (220e; 220f) describes a hook-shaped curved path.
A VLIW apparatus comprising: - an input means for inputting data; - a register file for storing data; - at least a first and a second issue slot; and wherein the apparatus is conceived for processing data retrieved from the register file based on control signals generated from a set of instructions grouped in a VLIW instruction and being executed in parallel, the set of instructions comprising at least a first and a second instruction, the first issue slot being controlled by a first control word corresponding to the first instruction and the second issue slot being controlled by a second control word corresponding to the second instruction, wherein the width of the first control word is different from the width of the second control word, wherein the first and the second control word are provided in the VLIW instruction in a predetermined order, characterized in that the first and the second issue slot each comprise a plurality of functional units, wherein the functional units of the first issue slot require only two operands and produce only one result and wherein the functional units of the second issue slot are more complex in that they require more than two operands and/or produce more than one result and/or support a larger operation set and larger immediate values and/or or have access to a larger register address space than those of the first issue slot, and in that the width of the control words is fixed during design of the VLIW apparatus in accordance with the complexity of the plurality of the functional units present in the corresponding issue slot in that the control word of the second issue slot having the more complex functional units is wider than the control word of the first issue slot. - an input means for inputting data; - a register file for storing data; - at least a first and a second issue slot;
A method for determining the biological activity of a neurotoxin polypeptide, comprising the steps of: a) cultivating neurons of different batches of iCell® neurons (Cellular Dynamics International) in a cell culture medium comprising 1 to 300 μM GT1b for at least 3 hours; b) contacting the neurons of different batches of iCell® neurons (Cellular Dynamics International) of step a) with a neurotoxin polypeptide selected from BoNT/A, BoNT/B, BoNT/C1, BoNT/D, BoNT/E, BoNT/F, BoNT/G, BoNT/H or TeNT, or a subtype thereof; c) cultivating the neurons of different batches of iCell® neurons (Cellular Dynamics International) of step b) for at least 24 hours in the presence of 1 to 300 μM GT1b under conditions which allow for the neurotoxin polypeptide to exert its biological activity; and d) determining the biological activity of the neurotoxin polypeptide in said cells, wherein the sensitivity of the neurons of different batches of iCell® neurons (Cellular Dynamics International) to the neurotoxin polypeptide is increased at least 2-fold, in comparison to the sensitivity of iCell® neurons (Cellular Dynamics International) not treated with GT1b. a) cultivating neurons of different batches of iCell® neurons (Cellular Dynamics International) in a cell culture medium comprising 1 to 300 μM GT1b for at least 3 hours; b) contacting the neurons of different batches of iCell® neurons (Cellular Dynamics International) of step a) with a neurotoxin polypeptide selected from BoNT/A, BoNT/B, BoNT/C1, BoNT/D, BoNT/E, BoNT/F, BoNT/G, BoNT/H or TeNT, or a subtype thereof; c) cultivating the neurons of different batches of iCell® neurons (Cellular Dynamics International) of step b) for at least 24 hours in the presence of 1 to 300 μM GT1b under conditions which allow for the neurotoxin polypeptide to exert its biological activity; and d) determining the biological activity of the neurotoxin polypeptide in said cells, wherein the sensitivity of the neurons of different batches of iCell® neurons (Cellular Dynamics International) to the neurotoxin polypeptide is increased at least 2-fold, in comparison to the sensitivity of iCell® neurons (Cellular Dynamics International) not treated with GT1b.
Vacuum-tight electrical feedthrough, comprising - an electrically insulating insulator element having a through-opening, having a first boundary surface adjacent to the through-opening, and having a second boundary surface also adjacent to the through-opening and opposite to the first boundary surface, and - an electrically conductive conductor element which extends through the through-opening and which is connected in a vacuum-tight manner to the insulator element along a circumferential line of the conductor element, wherein the insulator element is transmissive to electromagnetic radiation (25', 25", hv) in an optical wavelength range, and wherein the first and/or the second boundary surface is formed as a curved surface, in particular as a convex or concave surface, wherein the conductor element is of rod-shaped design having a first rod end projecting further beyond the first boundary surface than a second rod end projects beyond the second boundary surface, characterized in that the insulator element forms an imaging lens which images at least a first object point in the region between the first boundary surface and the first rod end onto a first image point that is further from the first boundary surface than the second rod end. - an electrically insulating insulator element having a through-opening, having a first boundary surface adjacent to the through-opening, and having a second boundary surface also adjacent to the through-opening and opposite to the first boundary surface, and - an electrically conductive conductor element which extends through the through-opening and which is connected in a vacuum-tight manner to the insulator element along a circumferential line of the conductor element, wherein the insulator element is transmissive to electromagnetic radiation (25', 25", hv) in an optical wavelength range, and wherein the first and/or the second boundary surface is formed as a curved surface, in particular as a convex or concave surface, wherein the conductor element is of rod-shaped design having a first rod end projecting further beyond the first boundary surface than a second rod end projects beyond the second boundary surface, characterized in that the insulator element forms an imaging lens which images at least a first object point in the region between the first boundary surface and the first rod end onto a first image point that is further from the first boundary surface than the second rod end.