mhurhangee/ep-ind-claims huggingface dataset:
Device for providing bio-feedback to a user, said device comprising: an interface configured to obtain skin conductance measurements of a user and to output user instructions and bio-feedback information; and a processing unit configured to - generate user instructions indicating one or more actions to follow by the user, - identify one or more galvanic skin response, GSR, storms in a skin conductance trace of the skin conductance measurements obtained during the execution by the user of the user instructions, wherein a GSR storm is identified based on the number of peaks and/or the peak frequency in a time period having a duration in the range of 2 to 6 minutes, - identify a latency of a predetermined duration without a further GSR storm after the end of an identified GSR storm, and - generate, if at least one GSR storm followed by a latency has been identified, bio-feedback information providing bio-feedback related to the one or more actions followed by the user. an interface configured to obtain skin conductance measurements of a user and to output user instructions and bio-feedback information; and a processing unit configured to - generate user instructions indicating one or more actions to follow by the user, - identify one or more galvanic skin response, GSR, storms in a skin conductance trace of the skin conductance measurements obtained during the execution by the user of the user instructions, wherein a GSR storm is identified based on the number of peaks and/or the peak frequency in a time period having a duration in the range of 2 to 6 minutes, - identify a latency of a predetermined duration without a further GSR storm after the end of an identified GSR storm, and - generate, if at least one GSR storm followed by a latency has been identified, bio-feedback information providing bio-feedback related to the one or more actions followed by the user. - generate user instructions indicating one or more actions to follow by the user, - identify one or more galvanic skin response, GSR, storms in a skin conductance trace of the skin conductance measurements obtained during the execution by the user of the user instructions, wherein a GSR storm is identified based on the number of peaks and/or the peak frequency in a time period having a duration in the range of 2 to 6 minutes, - identify a latency of a predetermined duration without a further GSR storm after the end of an identified GSR storm, and - generate, if at least one GSR storm followed by a latency has been identified, bio-feedback information providing bio-feedback related to the one or more actions followed by the user.
A transnasal tube assembly, comprising a transnasal tube and an integrated tether for anchoring the transnasal tube, wherein the integrated tether is permanently fixed to the transnasal tube at a first fixation point, and wherein the integrated tether is reversibly fixable to the transnasal tube at a second fixation point, wherein the integrated tether comprises a first end and a second end, wherein the first end is provided adjacent to the first fixation point and the second end is proximal to the second fixation point, wherein, when in use, the first end of the tether is secured to the transnasal tube at a position distal to the posterior nasal septum and the second end of the tether is secured to the transnasal tube at a position external to the patient.
A production method of electrical connections between an energy storage coil having current-collecting slices (71, 72) at each of its ends and a current-collecting piece (30, 40), the association of said pieces forming an electrical energy storage unit placed in a casing, said electrical energy storage unit comprising at least one electrical energy storage coil element intended to be placed inside a casing (20"), said casing (20") having to be closed by at least one cover (30, 40), said element and said cover (30, 40) each comprising current-collector means (71, 72, 34, 44), wherein the electrical connecting of the collecting slices (71, 72) of the coil and the current-collecting pieces (30, 40) is completed by a method of low-temperature diffusion brazing, said temperature being less than 400°C, the method being characterized in that it comprises at least the following steps: - a step of contributing gallium on one or the other of the current-collector means (71, 72, 34, 44); - an assembly step of the two current-collector means (71, 72, 34, 44) separated by the gallium deposit and, - a diffusion brazing step completed by application of a force generating in the materials to be assembled a restriction less than or equal to 10 Mpa, the unit being brazed over a period of less than 1 h, in light of making an electrical connection of the electrical energy storage unit. - a step of contributing gallium on one or the other of the current-collector means (71, 72, 34, 44); - an assembly step of the two current-collector means (71, 72, 34, 44) separated by the gallium deposit and, - a diffusion brazing step completed by application of a force generating in the materials to be assembled a restriction less than or equal to 10 Mpa, the unit being brazed over a period of less than 1 h, in light of making an electrical connection of the electrical energy storage unit.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a void extending through a medial side and a lateral side of the footwear, the void defining an upper surface and an opposite lower surface; at least one fluid-filled chamber (251a-251d) extending between the upper surface and the lower surface of the void, the at least one chamber having a first portion that is located adjacent to one of the medial side and the lateral side of the footwear, and the at least one chamber having a second portion that is located inward from the first portion; a plate extending under the second portion of the at least one chamber, a surface portion of the plate being in contact with the second portion of the at least one chamber, the plate being absent from an area under the first portion of the at least one chamber; and an outsole that forms a lower surface of the footwear, the outsole extending under both the first portion and the second portion of the at least one chamber; wherein the outsole is formed of a first material and the plate is formed of a second material, wherein the first material is softer than the second material. a void extending through a medial side and a lateral side of the footwear, the void defining an upper surface and an opposite lower surface; at least one fluid-filled chamber (251a-251d) extending between the upper surface and the lower surface of the void, the at least one chamber having a first portion that is located adjacent to one of the medial side and the lateral side of the footwear, and the at least one chamber having a second portion that is located inward from the first portion; a plate extending under the second portion of the at least one chamber, a surface portion of the plate being in contact with the second portion of the at least one chamber, the plate being absent from an area under the first portion of the at least one chamber; and an outsole that forms a lower surface of the footwear, the outsole extending under both the first portion and the second portion of the at least one chamber; wherein the outsole is formed of a first material and the plate is formed of a second material, wherein the first material is softer than the second material.
Compound of formula: in which: - R1 is chosen from a hydrogen atom, a C1-C6 alkyl group and a C1-C6 halogenoalkyl group; - R2, R3, identical or different, are chosen from a hydrogen atom and a C1-C6 alkyl group, as well as the pharmaceutically acceptable salts of this compound, for use in the treatment or prevention of an adverse effect induced by an anticancer agent, said adverse effect being neurotoxicity. - R1 is chosen from a hydrogen atom, a C1-C6 alkyl group and a C1-C6 halogenoalkyl group; - R2, R3, identical or different, are chosen from a hydrogen atom and a C1-C6 alkyl group,
An isolated or recombinant nucleic acid comprising a nucleic acid sequence having at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% or 100% sequence identity to the nucleic acid sequence of SEQ ID NO:617, wherein the nucleic acid encodes a polypeptide having glucan alpha maltotetrahydrolase activity.
A microcomputer/microcontroller integrated in a chip, comprising one or more homogeneous processors (PM0, PM1,..., etc.) equal to each other or having similar architecture, these processors having a program memory (PMEM) and a separate data memory, in which such processors are configured to operate directly on the data memory, the data memory of a processor being divided in a private section, specifically associated to its respective processor and corresponding to a private RAM (PRAM), and one shared section, corresponding to a multi-port shared-common RAM (CRAM), characterized by the fact that: a) between the processors and the memories only dedicated direct and unidirectional connections are provided; b) each processor (PM0, PM1,..., etc.) is provided with direct dedicated unidirectional connections with the associated private RAM and with the shared RAM in order to carry out the data reading from any location of the associated private RAM (PRAM) or of the shared RAM (CRAM), the calculation and the subsequent writing of the result in any location of the associated private RAM (PRAM) or of the shared RAM (CRAM), in a single operating cycle; c) each RAM memory (PRAM, CRAM) is provided with at least one unidirectional writing port and reading port connected to combinatorial type components of the processors, planned for performing the calculation, in order to obtain between those ports some data paths solely defined by combinatorial logic circuits; d) each of the above processors has a specific conditional block directly connected to the output of the data memory in order to test the value read from said data memory and choose whether to execute jump instructions or conditioned operative instructions. a) between the processors and the memories only dedicated direct and unidirectional connections are provided; b) each processor (PM0, PM1,..., etc.) is provided with direct dedicated unidirectional connections with the associated private RAM and with the shared RAM in order to carry out the data reading from any location of the associated private RAM (PRAM) or of the shared RAM (CRAM), the calculation and the subsequent writing of the result in any location of the associated private RAM (PRAM) or of the shared RAM (CRAM), in a single operating cycle; c) each RAM memory (PRAM, CRAM) is provided with at least one unidirectional writing port and reading port connected to combinatorial type components of the processors, planned for performing the calculation, in order to obtain between those ports some data paths solely defined by combinatorial logic circuits; d) each of the above processors has a specific conditional block directly connected to the output of the data memory in order to test the value read from said data memory and choose whether to execute jump instructions or conditioned operative instructions.
An article having a longitudinal axis and a lateral axis, the article comprising a topsheet and a backsheet, the topsheet and backsheet each having a main body portion and a pair of wings, wherein the topsheet comprises an apertured film and the backsheet comprises a film, wherein the topsheet film and the backsheet film are bonded via a plurality of longitudinally-oriented adhesive stripes on the wing areas.
A method for manufacturing pillow packages (1a, 1b) the method comprising: a first process for wrapping a thin paper bundle of a plurality of sheets of thin paper with a resin sheet and sealing a predetermined portion of the resin sheet to form a sealed portion; a second process for placing the pillow packages having the sealed portion on a conveying means; a third process for changing orientation of the plurality of the pillow packages conveyed by the conveying means to predetermined placement orientation; a fourth process for bonding a string of double-sided tape to predetermined surfaces of the plurality of pillow packages disposed upside at the predetermined placement orientation; a fifth process for cutting the string of double-sided tape bonded to the plurality of pillow packages between the plurality of pillow packages; wherein the fifth process places one pillow package of the plurality of pillow packages conveyed by the conveying means on an inclined placement section provided at the conveying means to incline the pillow package in a predetermined direction, a sixth process for expanding a space between another pillow package next to the one pillow package and the one pillow package; and a seventh process for bringing a cutting blade into contact with the string of double-sided tape bonded between the one pillow package and the other pillow package to cut the double-sided tape. a first process for wrapping a thin paper bundle of a plurality of sheets of thin paper with a resin sheet and sealing a predetermined portion of the resin sheet to form a sealed portion; a second process for placing the pillow packages having the sealed portion on a conveying means; a third process for changing orientation of the plurality of the pillow packages conveyed by the conveying means to predetermined placement orientation; a fourth process for bonding a string of double-sided tape to predetermined surfaces of the plurality of pillow packages disposed upside at the predetermined placement orientation; a fifth process for cutting the string of double-sided tape bonded to the plurality of pillow packages between the plurality of pillow packages; wherein the fifth process places one pillow package of the plurality of pillow packages conveyed by the conveying means on an inclined placement section provided at the conveying means to incline the pillow package in a predetermined direction, a sixth process for expanding a space between another pillow package next to the one pillow package and the one pillow package; and a seventh process for bringing a cutting blade into contact with the string of double-sided tape bonded between the one pillow package and the other pillow package to cut the double-sided tape.
A turbine assembly for a gas turbine engine, the turbine assembly comprising: a casing having an inner surface and extending circumferentially about an axial centerline, the casing defining a radially outer boundary of the turbine assembly; a disk positioned coaxially within the casing, the disk having a rim, the rim of the disk defining a perimeter of the disk; a row of circumferentially adjacent turbine stator vanes extending radially inward from the inner surface of the casing; a row of circumferentially adjacent turbine rotor blades extending radially outward from the perimeter of the disk, the row of blades positioned adjacent the row of vanes, wherein each blade in the row of blades includes an airfoil, each airfoil having opposite pressure and suction sides extending radially along a blade span ( s b) from a blade root to a blade tip, the blade span ( s b) including a plurality of blade span locations, each blade span location corresponding to a fraction of the blade span ( s b), wherein each airfoil defines a chord ( c) at each blade span location, the chords ( c) extending axially between opposite leading and trailing edges of the airfoil, and wherein the chords ( c) in a mid-span region ( s mid) of each blade are shorter than the chords ( c) in a span region (s 1) adjacent the blade root and a span region (s 2) adjacent the blade tip, wherein each blade has a stagger angle (λ) within a range of 10° to 80°, characterized in that the shorter chord length in the mid-span region of each blade is such that each blade has a Zweifel coefficient within a range of 1.2 to 1.3. a casing having an inner surface and extending circumferentially about an axial centerline, the casing defining a radially outer boundary of the turbine assembly; a disk positioned coaxially within the casing, the disk having a rim, the rim of the disk defining a perimeter of the disk; a row of circumferentially adjacent turbine stator vanes extending radially inward from the inner surface of the casing; a row of circumferentially adjacent turbine rotor blades extending radially outward from the perimeter of the disk, the row of blades positioned adjacent the row of vanes, wherein each blade in the row of blades includes an airfoil, each airfoil having opposite pressure and suction sides extending radially along a blade span ( s b) from a blade root to a blade tip, the blade span ( s b) including a plurality of blade span locations, each blade span location corresponding to a fraction of the blade span ( s b), wherein each airfoil defines a chord ( c) at each blade span location, the chords ( c) extending axially between opposite leading and trailing edges of the airfoil, and wherein the chords ( c) in a mid-span region ( s mid) of each blade are shorter than the chords ( c) in a span region (s 1) adjacent the blade root and a span region (s 2) adjacent the blade tip, wherein each blade has a stagger angle (λ) within a range of 10° to 80°, characterized in that the shorter chord length in the mid-span region of each blade is such that each blade has a Zweifel coefficient within a range of 1.2 to 1.3.
Device for holding and/or transporting a notebook and/or laptop, comprising a first holding device for holding the notebook and/and laptop, in particular with one or more receiving reception lock devices, a second holding device, wherein the first holding device is connected in a foldable manner to the second holding device via a folding connection, wherein the second holding device comprises three magnetic elements, wherein a first magnetic element and a second magnetic element are arranged in an upper region of the holding device and a third magnetic element are arranged substantially centrally in a lower region of the second holding device.
A video decoder, comprising: an interface configured to receive a bit stream in tile order within a video frame that was encoded into rectangular tiles; and processing circuitry configured to decode the video frame while respecting dependency breaks at tile boundaries, wherein the rectangular tiles including an integer number of two-dimensional blocks of pixels, a tile shape of each of the rectangular tiles being defined by N x M two-dimensional blocks of pixels, respective values of N and M need not be identical for each of the rectangular tiles, and information regarding tile shape being conveyed from an encoder to the decoder, the decoder configured to determine the values of N and M for each tile from the information, the rectangular tiles having dependency breaks therebetween, wherein the values of N and M are conveyed in a sequence or picture header; wherein the processing circuitry is configured to process a maximum number of horizontal tiles and a maximum number of vertical tiles independent of a resolution of video frames, wherein the resolution of video frames is determined by a width of the video frames and a height of the video frames. an interface configured to receive a bit stream in tile order within a video frame that was encoded into rectangular tiles; and processing circuitry configured to decode the video frame while respecting dependency breaks at tile boundaries, wherein the rectangular tiles including an integer number of two-dimensional blocks of pixels, a tile shape of each of the rectangular tiles being defined by N x M two-dimensional blocks of pixels, respective values of N and M need not be identical for each of the rectangular tiles, and information regarding tile shape being conveyed from an encoder to the decoder, the decoder configured to determine the values of N and M for each tile from the information, the rectangular tiles having dependency breaks therebetween, wherein the values of N and M are conveyed in a sequence or picture header; wherein the processing circuitry is configured to process a maximum number of horizontal tiles and a maximum number of vertical tiles independent of a resolution of video frames, wherein the resolution of video frames is determined by a width of the video frames and a height of the video frames.
A method of transmitting and receiving a tracking area update-less, TAU-less, power saving mode-related, PSM-related, signal, which is transmitted and received by a mobility management entity, MME, in a wireless communication system, comprising the steps of: Receiving (S902, S903) a first TAU request message including information related to a TAU-less PSM entry from a UE, wherein the information related to the TAU-less PSM entry includes information informing that the UE does not perform a periodic TAU; Transmitting a TAU accept message in response to the first TAU request message; and receiving (S908, S909) a second TAU request message including information related to release of the TAU-less PSM, wherein the MME considers the second TAU request message containing the information related to the release of the TAU-less PSM as an attach request. Receiving (S902, S903) a first TAU request message including information related to a TAU-less PSM entry from a UE, wherein the information related to the TAU-less PSM entry includes information informing that the UE does not perform a periodic TAU; Transmitting a TAU accept message in response to the first TAU request message; and receiving (S908, S909) a second TAU request message including information related to release of the TAU-less PSM, wherein the MME considers the second TAU request message containing the information related to the release of the TAU-less PSM as an attach request.
A process for making high surface area graphitized carbon, comprising the steps of graphitizing and increasing surface area, in either order, of a starting carbon material, optionally carbon black, to form high surface area graphitized carbon, wherein the step of increasing surface area occurs by oxidation and wherein the difference in surface area between the high surface area carbon and the starting carbon material is from 100 to 1500 m 2 /g, wherein the graphitizing step comprises either heat treating to a temperature ranging from 800°C to 2700°C for a period of time of from 0.01 to 10 hours, or contacting with a catalyst at a temperature less than 1500°C, optionally less than 1200°C, for a period of time of from 0.01 to 10 hours and wherein the increasing surface area occurs by oxidizing, and wherein the oxidizing comprises contacting with one or more of O 2. air, O 3, an oxygen-containing acid, water, or CO 2, optionally in the presence of catalyst; and/or the oxidizing comprises fluidizing with a fluidizing medium comprising either steam or oxygen for a period of time from 0.5 to 30 hours, the fluidizing medium having a temperature of from 300°C to 1500°C, wherein the high surface area graphitized carbon has a d spacing of less than 0.3500 nm as measured by XRD.