mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a housing structure including a first housing, a second housing, and a hinge housing; a hinge structure at least partially disposed in the hinge housing and configured to connect at least part of the first housing and at least part of the second housing to allow the first housing and the second housing to be folded or unfolded, with a folding axis therebetween; a display extending from the first housing to the second housing across the hinge housing, the display including a surface defining at least portion of a front surface of the electronic device when the first housing and the second housing are unfolded; and a protective structure disposed at an edge of the hinge housing, wherein the protective structure includes: a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing, respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display, wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis. a housing structure including a first housing, a second housing, and a hinge housing; a hinge structure at least partially disposed in the hinge housing and configured to connect at least part of the first housing and at least part of the second housing to allow the first housing and the second housing to be folded or unfolded, with a folding axis therebetween; a display extending from the first housing to the second housing across the hinge housing, the display including a surface defining at least portion of a front surface of the electronic device when the first housing and the second housing are unfolded; and a protective structure disposed at an edge of the hinge housing, wherein the protective structure includes: a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing, respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display, wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis. a fixed part disposed in the hinge housing; guide parts disposed in the first housing and the second housing, respectively; and moving parts including cover portions configured to cover at least parts of a periphery of the surface of the display, wherein the moving parts are configured to be movable relative to the guide parts and the fixed part wherein gap (G1, G2, G3) between the surface of the display and the cover portions is adapted to change according to folding of the first housing and the second housing along the folding axis.
A welding system that identifies connectivity of components, comprising: a power source (102, 104, 106, 108) that generates and delivers power to at least one wire feeder (122, 124, 126, 128) or to a welding consumable within an electric arc weld operation; the least one wire feeder (122, 124, 126, 128) connected to the power source, which delivers the welding consumable to a weld location; and an output component (142, 144, 146, 148) associated with the power source or wire feeder; characterized by an input component (132, 134, 136, 138), associated with the wire feeder or power source, which initiates a data transmission; and in that the output component (142, 144, 146, 148) generates a notification based at least in part upon the data transmission initiated by the input component to identify connectivity of the wire feeder and the power source. a power source (102, 104, 106, 108) that generates and delivers power to at least one wire feeder (122, 124, 126, 128) or to a welding consumable within an electric arc weld operation; the least one wire feeder (122, 124, 126, 128) connected to the power source, which delivers the welding consumable to a weld location; and an output component (142, 144, 146, 148) associated with the power source or wire feeder; characterized by an input component (132, 134, 136, 138), associated with the wire feeder or power source, which initiates a data transmission; and in that the output component (142, 144, 146, 148) generates a notification based at least in part upon the data transmission initiated by the input component to identify connectivity of the wire feeder and the power source.
A transmission method for wireless communication in a line of sight environment, the transmission method comprising: generating a pair of a first transmission signal z1 and a second transmission signal z2 for each pair of a first modulated signal s1 and a second modulated signal s2, the first transmission signal z1 and the second transmission signal z2 satisfying (z1, z2) T = F[i] (s1, s2) T, wherein F[i] is one matrix selected from among N matrices, N is equal to an integer 9 and i is equal to an integer no less than 0 and no more than 8; and transmitting the first transmission signal z1 and the second transmission signal z2 by using two antennas (312A, 312B), characterized by the N matrices being expressed by the following equations: F i = 0 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ, F i = 1 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 2 9 π e j 2 9 π + π, F i = 2 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 4 9 π e j 4 9 π + π, F i = 3 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 6 9 π e j 6 9 π + π, F i = 4 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 8 9 π e j 8 9 π + π, F i = 5 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 10 9 π e j 10 9 π + π, F i = 6 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 12 9 π e j 12 9 π + π, F i = 7 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 14 9 π e j 14 9 π + π, and F i = 8 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 16 9 π e j 16 9 π + π, wherein a is a positive real number, and F[i] is selected from among the N matrices by regularly hopping over a period of N slots. generating a pair of a first transmission signal z1 and a second transmission signal z2 for each pair of a first modulated signal s1 and a second modulated signal s2, the first transmission signal z1 and the second transmission signal z2 satisfying (z1, z2) T = F[i] (s1, s2) T, wherein F[i] is one matrix selected from among N matrices, N is equal to an integer 9 and i is equal to an integer no less than 0 and no more than 8; and transmitting the first transmission signal z1 and the second transmission signal z2 by using two antennas (312A, 312B), characterized by the N matrices being expressed by the following equations: F i = 0 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ, F i = 1 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 2 9 π e j 2 9 π + π, F i = 2 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 4 9 π e j 4 9 π + π, F i = 3 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 6 9 π e j 6 9 π + π, F i = 4 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 8 9 π e j 8 9 π + π, F i = 5 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 10 9 π e j 10 9 π + π, F i = 6 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 12 9 π e j 12 9 π + π, F i = 7 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 14 9 π e j 14 9 π + π, and F i = 8 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 16 9 π e j 16 9 π + π, wherein a is a positive real number, and F[i] is selected from among the N matrices by regularly hopping over a period of N slots.
A method of transmitting data in a vehicle ad-hoc network, the method being performed by a node of the vehicle ad-hoc network, the node employing a network stack that includes an information layer interfacing with an application layer and one or more networking layers, the method comprising: receiving by the information layer a utility function from an application of the application layer, said application needing to propagate data, wherein the utility function describes how valuable the delivery of data from said application is to recipients; precomputing by the information layer a set of microutilities that will optimize the utility function supplied by the application based on the currently available resources, wherein the microutilities approximate the full utility function and each microutility contains an origin, a geometric domain and a dynamic priority; assigning by the information layer microutilities to the individual data samples of the application; and propagating the data samples with their accompanying microutilities through the vehicle ad-hoc network, wherein the propagating is based on said accompanying microutilities. receiving by the information layer a utility function from an application of the application layer, said application needing to propagate data, wherein the utility function describes how valuable the delivery of data from said application is to recipients; precomputing by the information layer a set of microutilities that will optimize the utility function supplied by the application based on the currently available resources, wherein the microutilities approximate the full utility function and each microutility contains an origin, a geometric domain and a dynamic priority; assigning by the information layer microutilities to the individual data samples of the application; and propagating the data samples with their accompanying microutilities through the vehicle ad-hoc network, wherein the propagating is based on said accompanying microutilities.
An image-capturing device comprising: a plurality of photoelectric converting units; a plurality of light-receiving units that are arranged corresponding to a plurality of blocks each constituted by one or more photoelectric converting units, each of the light-receiving units being configured to receive drive light and, according to the received drive light, to cause supply of a drive signal to a corresponding photoelectric converting unit among the photoelectric converting units; a photoelectric converting substrate having the plurality of photoelectric converting units; a light-receiving substrate that is stacked on the photoelectric converting substrate, and has the plurality of light-receiving units; and a light-emitting substrate that is stacked on the light-receiving substrate, and has one or more of the light-emitting units that emit the drive light, wherein the photoelectric converting substrate and the light-receiving substrate are stacked such that a surface of the photoelectric converting substrate on which the photoelectric converting units receive external light and a surface of the light-receiving substrate on which the plurality of light-receiving units receive the drive light face away from each other, and wherein the light-emitting substrate and the light-receiving substrate are stacked such that a surface of the light-emitting substrate from which the light-emitting units emit the drive light, and a surface of the light-receiving substrate on which the plurality of light-receiving units receive the drive light face each other. a plurality of photoelectric converting units; a plurality of light-receiving units that are arranged corresponding to a plurality of blocks each constituted by one or more photoelectric converting units, each of the light-receiving units being configured to receive drive light and, according to the received drive light, to cause supply of a drive signal to a corresponding photoelectric converting unit among the photoelectric converting units; a photoelectric converting substrate having the plurality of photoelectric converting units; a light-receiving substrate that is stacked on the photoelectric converting substrate, and has the plurality of light-receiving units; and a light-emitting substrate that is stacked on the light-receiving substrate, and has one or more of the light-emitting units that emit the drive light, wherein the photoelectric converting substrate and the light-receiving substrate are stacked such that a surface of the photoelectric converting substrate on which the photoelectric converting units receive external light and a surface of the light-receiving substrate on which the plurality of light-receiving units receive the drive light face away from each other, and wherein the light-emitting substrate and the light-receiving substrate are stacked such that a surface of the light-emitting substrate from which the light-emitting units emit the drive light, and a surface of the light-receiving substrate on which the plurality of light-receiving units receive the drive light face each other.
A vehicle body component comprising a first component and a second component which are formed of a plate material, and configured to extend in a juxtaposition direction in which the components(11,21) are arranged, by connecting end portions of the components(11,21), wherein the connection-side end portion of the first component has a slit which opens at its end and extends in the juxtaposition direction, the connection-side end portion of the first component and the connection-side end portion of the second component overlap each other in a staggered manner on opposite sides across the slit, one side of the opposite sides across the slit is retracted inward in the connection-side end portion of the first component and a step is provided between the one side and the other side opposite sides across the slit, the connection-side end portion of the second component has a slit which opens at its end and extends along the juxtaposition direction; the slit overlaps the slit of the first component; and the side which is retracted inward is the opposite to the first component and a step is provided between the side and the other side across the slit of the second component, and in each of the connection-side end portions of the first component and the second component, one of plate portions located on the opposite sides across the slit(31,41) is a first flat plate portion(14a,24b) flush with a plate portion, and the other plate portion is a second flat plate portion(14b,24a) which forms the step(31,41) in cooperation with the first flat plate portion(14a,24b) as a result of subjection to bending while being held in parallel with the first flat plate portion(14a,24b), characterized in that the second flat plate portion (14b, 24a) is the side which is retracted inward, in the opposite sides across the slit (31, 41), the second flat plate portion of the first component overlaps the first flat plate portion of the second component on the inside of the first flat plate portion of the second component, and the second flat plate portion of the second component overlaps the first flat plate portion of the first component on the inside of the first flat plate portion of the first component.
A polypeptide comprising: a portion of TrkB-FL that is derived from SEQ ID NO: 1, comprises Asn 520 and Ser 521, and is 5 to 20 residues in length; a linker; and a cell-penetrating peptide that is connected to the portion of TrkB-FL by the linker; wherein the polypeptide is able to prevent calpain cleavage of TrkB-FL to produce TrkB-ICD. a portion of TrkB-FL that is derived from SEQ ID NO: 1, comprises Asn 520 and Ser 521, and is 5 to 20 residues in length; a linker; and a cell-penetrating peptide that is connected to the portion of TrkB-FL by the linker;
A low frequency transducer arrangement comprising: at least one substantially annular magnet (36, 336, 337); a voice coil disposed within and concentric with the magnet (36, 336, 337); a pole (40; 340) disposed within and concentric with the voice coil, an air gap being defined between the magnet (36, 336, 337) and the pole, the pole (40, 340) including: a bottom half (44; 344) having a downwardly facing axial recess, a plurality of first air passages extending laterally from the axial recess and fluidly interconnecting the recess and the air gap; and a top half (42; 342) having an upwardly facing axial recess, a plurality of second air passages extending laterally from the upwardly facing axial recess and fluidly interconnecting the upwardly facing recess and the air gap, wherein the first air passages and/or the second air passages are non-radially oriented, in that they extend parallel to a plane formed by the at least one substantially annular magnet, but do not extend in a radial direction from the respective axial recess (46, 48), and wherein the non-radially oriented_first air passages and/or the second air passages are offset from the radial direction by an angle. at least one substantially annular magnet (36, 336, 337); a voice coil disposed within and concentric with the magnet (36, 336, 337); a pole (40; 340) disposed within and concentric with the voice coil, an air gap being defined between the magnet (36, 336, 337) and the pole, the pole (40, 340) including: a bottom half (44; 344) having a downwardly facing axial recess, a plurality of first air passages extending laterally from the axial recess and fluidly interconnecting the recess and the air gap; and a top half (42; 342) having an upwardly facing axial recess, a plurality of second air passages extending laterally from the upwardly facing axial recess and fluidly interconnecting the upwardly facing recess and the air gap, wherein the first air passages and/or the second air passages are non-radially oriented, in that they extend parallel to a plane formed by the at least one substantially annular magnet, but do not extend in a radial direction from the respective axial recess (46, 48), and wherein the non-radially oriented_first air passages and/or the second air passages are offset from the radial direction by an angle. a bottom half (44; 344) having a downwardly facing axial recess, a plurality of first air passages extending laterally from the axial recess and fluidly interconnecting the recess and the air gap; and a top half (42; 342) having an upwardly facing axial recess, a plurality of second air passages extending laterally from the upwardly facing axial recess and fluidly interconnecting the upwardly facing recess and the air gap, wherein the first air passages and/or the second air passages are non-radially oriented, in that they extend parallel to a plane formed by the at least one substantially annular magnet, but do not extend in a radial direction from the respective axial recess (46, 48), and wherein the non-radially oriented_first air passages and/or the second air passages are offset from the radial direction by an angle.
A foaming sunscreen composition, comprising: an oil-in-water emulsion, comprising a continuous water phase comprising from 0.75% to 6% by weight of a superhydrophilic amphiphilic copolymer, based on total weight of the foaming sunscreen composition, wherein the superhydrophilic amphiphilic copolymer is a starch based polysaccharide modified with one or more hydrophobic reagents, wherein the total amount of superhydrophilic amphiphilic copolymer in the continuous water phase is 0.75% to 6% based on the total weight of the sunscreen composition; and a discontinuous oil phase dispersed in the water phase, wherein the discontinuous oil phase comprises a UV absorbing compound and is substantially free of an oil soluble polymer, wherein the oil phase comprises 80% or more by weight of the UV absorbing compound and wherein the foaming sunscreen composition is essentially free of monomeric surfactant. a continuous water phase comprising from 0.75% to 6% by weight of a superhydrophilic amphiphilic copolymer, based on total weight of the foaming sunscreen composition, wherein the superhydrophilic amphiphilic copolymer is a starch based polysaccharide modified with one or more hydrophobic reagents, wherein the total amount of superhydrophilic amphiphilic copolymer in the continuous water phase is 0.75% to 6% based on the total weight of the sunscreen composition; and a discontinuous oil phase dispersed in the water phase,
A sensor structure comprising: a mass airflow measurement element that measures a mass airflow flowing in an intake pipe, a humidity sensing element that senses humidity of air flowing in the intake pipe, a housing structural component having a connector that carries out input/output to/from outside and a terminal component of the connector, a bypass passage that is composed by using part of the housing structural component and takes in part of the air that flows in the intake pipe, the mass airflow measurement element being mounted in the bypass passage; and an open space provided in the housing structural component in the vicinity of the bypass passage, the open space being in communication with the bypass passage, wherein the open space does not have a structure sealed by an adhesive, a seal material, or the like, the sensor structure further comprising: a first air communication channel communicating between the open space and the bypass passage, and a second air communication channel communicating between the open space and the bypass passage, the sensor structure characterized in that: the humidity sensing element is mounted in the open space at a position away from a path of a main flow including the first air communication channel, the open space, and the second air communication channel. a mass airflow measurement element that measures a mass airflow flowing in an intake pipe, a humidity sensing element that senses humidity of air flowing in the intake pipe, a housing structural component having a connector that carries out input/output to/from outside and a terminal component of the connector, a bypass passage that is composed by using part of the housing structural component and takes in part of the air that flows in the intake pipe, the mass airflow measurement element being mounted in the bypass passage; and an open space provided in the housing structural component in the vicinity of the bypass passage, the open space being in communication with the bypass passage, wherein the open space does not have a structure sealed by an adhesive, a seal material, or the like, the sensor structure further comprising: a first air communication channel communicating between the open space and the bypass passage, and a second air communication channel communicating between the open space and the bypass passage, a first air communication channel communicating between the open space and the bypass passage, and a second air communication channel communicating between the open space and the bypass passage, the sensor structure characterized in that: the humidity sensing element is mounted in the open space at a position away from a path of a main flow including the first air communication channel, the open space, and the second air communication channel.
A tethering attachment assembly adapted for attachment to an apparatus to facilitate connection of a lanyard to the apparatus, the tethering attachment assembly comprising: a pair of posts; a coil element comprising metallic material that substantially resiliently retains its state with application of force up to a limit, and is permanently plastically deformable upon application of force exceeding the limit, the coil element having two ends attached to the elongated posts and adapted to form a substantially U-shaped hook when the elongated posts are attached to the apparatus; and a sleeve tubularly disposed around the coil element to substantially cover the coil element. a pair of posts; a coil element comprising metallic material that substantially resiliently retains its state with application of force up to a limit, and is permanently plastically deformable upon application of force exceeding the limit, the coil element having two ends attached to the elongated posts and adapted to form a substantially U-shaped hook when the elongated posts are attached to the apparatus; and a sleeve tubularly disposed around the coil element to substantially cover the coil element.