mhurhangee/ep-ind-claims huggingface dataset:
An outsole (100, 100a) for an article of footwear (10a, 10b), the outsole comprising: a main body including a plurality of modules (122a-122d) arranged in series from a first end to a second end, adjacent ones of the modules (122a-122d) detachably connected to each other along one of a plurality of seams (124a-124c) extending from a first side of the main body to a second side of the main body; and at least one insert embedded in each of the modules (122a-122d) and configured for selectively attaching a traction element to the outsole (100, 100a). a main body including a plurality of modules (122a-122d) arranged in series from a first end to a second end, adjacent ones of the modules (122a-122d) detachably connected to each other along one of a plurality of seams (124a-124c) extending from a first side of the main body to a second side of the main body; and at least one insert embedded in each of the modules (122a-122d) and configured for selectively attaching a traction element to the outsole (100, 100a).
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising (a) 27% by weight of a styrene-butadiene-acrylonitrile graft copolymer, in which the average particle diameter, as measured by dynamic laser light scattering method, of the butadiene rubber is 300 nm, and (b) 73% by weight of an alpha-methylstyrene-acrylonitrile copolymer; and (c) 1 part by weight of a polyolefin oxide-based triblock copolymer, wherein (c) the polyolefin oxide-based triblock copolymer is a polyethylene oxide-polypropylene oxide triblock copolymer, the polyethylene oxide is comprised in an amount of 80 % by weight with respect to (c) the polyolefin oxide-based triblock copolymer, and a number average molecular weight (Mn), as measured by GPC analysis, of the polypropylene oxide is 1,750 g/mol.
A genome-editing complex for modifying a target polynucleotide comprising a cell-penetrating peptide and one or more molecules of a genome-editing system, wherein the cell-penetrating peptide is an ADGN-100 peptide, comprising i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 53-70; or ii) the amino acid sequence of SEQ ID NO: 79 or 80; and wherein the one or more genome-editing system molecules are selected from the group consisting of: a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide. i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 53-70; or ii) the amino acid sequence of SEQ ID NO: 79 or 80; and wherein the one or more genome-editing system molecules are selected from the group consisting of: a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide. a) one or both of 1) an RNA-guided endonuclease (RGEN) or a nucleic acid encoding the RGEN and 2) a guide RNA (gRNA), wherein the gRNA comprises a guide sequence complementary to a target sequence in the target polynucleotide; and b) one or both of a 1) DNA-guided endonuclease (DGEN) or a nucleic acid encoding the DGEN and 2) a guide DNA (gDNA), wherein the gDNA comprises a guide sequence complementary to a target sequence in the target polynucleotide.
Support for a multimedia tablet, the tablet comprising a front face having a screen and an optical member, and a rear face opposite the front face, the support comprising a bearing portion designed to cooperate with the rear face of the tablet so that the screen is visible, the bearing portion extending in a first direction and in a second direction transverse to the first direction, the bearing portion comprising a base designed to be placed on a placement surface, an optical reflector element designed to be arranged opposite the optical member, and a support portion designed to support the tablet, the optical reflector element and the support portion being carried by the bearing portion so that, when viewed in the first direction, the support portion is arranged between the base and the optical reflector element, characterized in that the support portion is movable in the first direction, while the optical reflector element is movable in the second direction.
A wireless power transmission unit that transmits power wirelessly from a power transmitting section to a power receiving section through a resonant magnetic field, the unit comprising: the power transmitting section adapted to resonate at a first resonant frequency; a relay section with a relay resonator having a second resonant frequency, the second resonant frequency being switchable between a frequency identical to the first resonant frequency and a frequency different from the first resonant frequency; and a resonance control section adapted to set the second resonant frequency of the relay resonator on the basis of a position of the power receiving section relative to the relay section and the power transmitting section such that the second resonant frequency of the relay section is identical to the first resonant frequency if the power receiving section is located close to the relay section and distant from the power transmitting section, and such that the second resonant frequency of the relay section is different from the first resonant frequency if the power receiving section is located close to the power transmitting section. the power transmitting section adapted to resonate at a first resonant frequency; a relay section with a relay resonator having a second resonant frequency, the second resonant frequency being switchable between a frequency identical to the first resonant frequency and a frequency different from the first resonant frequency; and a resonance control section adapted to set the second resonant frequency of the relay resonator on the basis of a position of the power receiving section relative to the relay section and the power transmitting section such that the second resonant frequency of the relay section is identical to the first resonant frequency if the power receiving section is located close to the relay section and distant from the power transmitting section, and such that the second resonant frequency of the relay section is different from the first resonant frequency if the power receiving section is located close to the power transmitting section.
A battery positioning structure for an electric vehicle which includes a plurality of battery units constituted by battery modules (5a, 5b), the battery positioning structure comprising: a bracket having at opposite ends not only check plates (24, 25) which are configured to be positioned on a body of the electric vehicle but also locks at edges of opposite sides of the bracket, the bracket being configured to be attached to outer surfaces of the battery modules (5a, 5b) and to unite the battery cells, and bands configured to extend across the bracket and between the opposite sides where no check plates are present, wherein ends (22a; 22b) of the bands are configured to be linked to the locks at the opposite sides of the bracket, wherein each band has teeth (27a; 27b) at its ends (22a; 22b), wherein the battery modules (5a, 5b) and the bracket are positionable on the body of the electric vehicle, and wherein each lock has a recess and is configured to engage with the teeth (27a; 27b) of the band. a bracket having at opposite ends not only check plates (24, 25) which are configured to be positioned on a body of the electric vehicle but also locks at edges of opposite sides of the bracket, the bracket being configured to be attached to outer surfaces of the battery modules (5a, 5b) and to unite the battery cells, and bands configured to extend across the bracket and between the opposite sides where no check plates are present, wherein ends (22a; 22b) of the bands are configured to be linked to the locks at the opposite sides of the bracket, wherein each band has teeth (27a; 27b) at its ends (22a; 22b), wherein the battery modules (5a, 5b) and the bracket are positionable on the body of the electric vehicle, and wherein each lock has a recess and is configured to engage with the teeth (27a; 27b) of the band.
A method comprising: variable length decoding compressed information (DC, PQR, AC) to generate a variable length decoded data block; determining an address of data within the variable length decoded data block, wherein determining the address of the data comprises determining Y and X indices for a quantized transform coefficient position within the variable length decoded data block based on a Y and X index system, wherein the Y and X indices determine a frequency domain location in which the quantized transform coefficient is located; determining a variable value based on a block size assignment information and the Y and X indices; selecting a quantization parameter (Q-step, FWM) based on the determined variable value; and inverse quantizing the data within the variable length decoded data block using the selected quantization parameter. variable length decoding compressed information (DC, PQR, AC) to generate a variable length decoded data block; determining an address of data within the variable length decoded data block, wherein determining the address of the data comprises determining Y and X indices for a quantized transform coefficient position within the variable length decoded data block based on a Y and X index system, wherein the Y and X indices determine a frequency domain location in which the quantized transform coefficient is located; determining a variable value based on a block size assignment information and the Y and X indices; selecting a quantization parameter (Q-step, FWM) based on the determined variable value; and inverse quantizing the data within the variable length decoded data block using the selected quantization parameter.
A fluorescence detection device comprising: a plurality of light sources configured to apply an excitation light from an outside of a living body toward fluorescent dye previously injected into the living body; a plurality of detectors configured to detect fluorescence emitted from the fluorescent dye by the excitation light, and to output the detected fluorescence as an electric signal; a band to be wrapped around a human arm or leg, the plurality of light sources and the plurality of detectors being arranged in at least one line in a longitudinal direction of the band on an inner side of the band; characterised in that a plurality of support portions is provided on a surface on the inner side of the band, for ensuring a predetermined clearance between the light sources and the detectors and skin of a subject, the plurality of support portions being provided at opposite ends in a width direction of the band and extending in the longitudinal direction of the band, and in that at least one detector is placed between two of the light sources, and at least one light source is placed between two of the detectors. a plurality of light sources configured to apply an excitation light from an outside of a living body toward fluorescent dye previously injected into the living body; a plurality of detectors configured to detect fluorescence emitted from the fluorescent dye by the excitation light, and to output the detected fluorescence as an electric signal; a band to be wrapped around a human arm or leg, the plurality of light sources and the plurality of detectors being arranged in at least one line in a longitudinal direction of the band on an inner side of the band;
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and a diol compound chosen from 1,3-propanediol, 1,2-octanediol and 1,2-decanediol, and when the diol is 1,3-propanediol, it is present in a 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one/1,3-propanediol weight ratio ranging from 0.02 to 0.15.
Exhaust gas purification assembly for a combustion engine, in particular a diesel engine, comprising a exhaust gas purification apparatus engaged in the exhaust section of the exhaust gas purification assembly (1, 22), operating catalytically in the presence of a reaction agent introduced into the exhaust gas flow, such as an SCR catalyst, and comprising a reaction agent feed upstream of this exhaust gas purification apparatus in the flow direction, with a reaction agent dosing nozzle arranged in the exhaust section, and a reaction pipe (11, 27), open on the input side and on the output side and aligned in the flow direction of the exhaust gas, and with its outer mantle surface spaced at a distance from the inner wall of the exhaust section, wherein the reaction agent dosing nozzle is arranged for the dispensing of the reaction agent into the reaction pipe (11, 27), characterised in that the ratio of the cross-sectional area of the reaction pipe (11, 27), through which flow takes place, to the cross-sectional area of the exhaust section surrounding the reaction pipe (11, 27) in the region of the input opening (14, 28) of the reaction pipe (11, 27) is significantly smaller than in the region of its output opening (15, 29), wherein the reaction pipe (11, 27) is arranged inside a narrowing section of the exhaust section, or is arranged engaging through such a section.
Conveyor device for coins, comprising means for moving at least one coin in a predetermined movement direction, which differs from the effective direction of gravity, under a force uninfluenced by a moved mechanical component, characterized in that the conveyor device is arranged inside a machine, which is to be operated with coins, and is coupled to a detection device, which identifies the presence of the coin, in order to accelerate the coins in the predetermined movement direction as required.
A method for producing a cellulose fiber composite, which comprises a composite formation step of subjecting a microfibrillated cellulose fiber dispersion, obtained by a fibrillation step of fibrillating cellulose fibers in a starting material dispersion containing cellulose fibers having a number average fiber diameter from 10 μm to 100 mm, at least one of a resin and a resin precursor, and an organic solvent, to at least one of a heat treatment and photoexposure treatment, to thereby remove the organic solvent and obtain a cellulose fiber composite containing microfibrillated cellulose fibers and a resin.
A semiconductor device comprising: a base substrate including an upper surface; a nucleation layer disposed over the upper surface of the base substrate, wherein the nucleation layer comprises a heteroepitaxial layer formed from a material selected from aluminum nitride, gallium nitride, aluminum gallium nitride, indium gallium nitride, and indium aluminum nitride; a first semiconductor layer disposed over the nucleation layer; a second semiconductor layer disposed over the first semiconductor layer, wherein the first and second semiconductor layers (106, 108) include one or more III-N semiconductor layers; a channel within the second semiconductor layer and proximate to an upper surface of the second semiconductor layer; and an enhanced resistivity region, in which one or more ion species are implanted, wherein the enhanced resistivity region has an upper boundary located a distance below the channel and the upper surface of the second semiconductor layer, and wherein the enhanced resistivity region extends through the first semiconductor layer, characterized in that the enhanced resistivity region has a disrupted crystal lattice. a base substrate including an upper surface; a nucleation layer disposed over the upper surface of the base substrate, wherein the nucleation layer comprises a heteroepitaxial layer formed from a material selected from aluminum nitride, gallium nitride, aluminum gallium nitride, indium gallium nitride, and indium aluminum nitride; a first semiconductor layer disposed over the nucleation layer; a second semiconductor layer disposed over the first semiconductor layer, wherein the first and second semiconductor layers (106, 108) include one or more III-N semiconductor layers; a channel within the second semiconductor layer and proximate to an upper surface of the second semiconductor layer; and an enhanced resistivity region, in which one or more ion species are implanted, wherein the enhanced resistivity region has an upper boundary located a distance below the channel and the upper surface of the second semiconductor layer, and wherein the enhanced resistivity region extends through the first semiconductor layer, characterized in that the enhanced resistivity region has a disrupted crystal lattice.
A method of conversion of polylactic acid to lactide in a supercritical carbon dioxide medium which is provided by carrying out the steps of: a) adjusting the temperature of the reactor to at least 120°C, b) the pressure to values above the critical pressure (73.8 bar) of carbon dioxide, wherein the steps of a and b are applied at the desired sequence. a) adjusting the temperature of the reactor to at least 120°C, b) the pressure to values above the critical pressure (73.8 bar) of carbon dioxide, wherein the steps of a and b are applied at the desired sequence.
A gas turbine engine component comprising: an airfoil with a suction side and pressure side, and extending from a leading edge to a trailing edge; and a plurality of cooling holes (113, 117, 130, 132) adjacent the leading edge, with said cooling holes (113, 117, 130, 132) having a non-circular shape, with a longer dimension (d 1) and a shorter dimension (d 2), and said airfoil defining a radial direction from a radially outer end to a radially inner end, and radially outer of said cooling holes spaced toward said radially outer end having said longer dimension (d 1) extending closer to parallel to said radial direction, and radially inner cooling holes closer to said radially inner end having said longer dimension (d 1) extending to be closer to perpendicular relative to said radial direction compared to said radially outer cooling holes; characterised in that: there is a transition zone intermediate said radially inner and radially outer cooling holes (113, 117), with said transition zone including a cooling hole (130, 132) having a longer dimension (d 1) that is non-perpendicular and non-parallel to said radial direction; said transition zone includes a plurality of cooling holes (130, 132), which have said longer dimension (d 1) defining an angle (A, B) between 0 and 90° relative to said radial direction; and the angle (A, B) of said plurality of cooling holes (130, 132) in said transition zone increases as said cooling holes (130, 132) are radially closer to said radially inner most cooling hole. an airfoil with a suction side and pressure side, and extending from a leading edge to a trailing edge; and a plurality of cooling holes (113, 117, 130, 132) adjacent the leading edge, with said cooling holes (113, 117, 130, 132) having a non-circular shape, with a longer dimension (d 1) and a shorter dimension (d 2), and said airfoil defining a radial direction from a radially outer end to a radially inner end, and radially outer of said cooling holes spaced toward said radially outer end having said longer dimension (d 1) extending closer to parallel to said radial direction, and radially inner cooling holes closer to said radially inner end having said longer dimension (d 1) extending to be closer to perpendicular relative to said radial direction compared to said radially outer cooling holes; there is a transition zone intermediate said radially inner and radially outer cooling holes (113, 117), with said transition zone including a cooling hole (130, 132) having a longer dimension (d 1) that is non-perpendicular and non-parallel to said radial direction; said transition zone includes a plurality of cooling holes (130, 132), which have said longer dimension (d 1) defining an angle (A, B) between 0 and 90° relative to said radial direction; and the angle (A, B) of said plurality of cooling holes (130, 132) in said transition zone increases as said cooling holes (130, 132) are radially closer to said radially inner most cooling hole.
A method for transmitting hybrid automatic repeat request, HARQ, information, comprising: receiving (S 102), by a first device, data on a transmission time unit n of the first device; selecting, by the first device, a transmission time unit location for transmitting HARQ feedback according to a predefined HARQ timing set, wherein the predefined HARQ timing set comprises a number N of HARQ timing locations, and N is a positive integer greater than or equal to 2; and transmitting, by the first device, the HARQ feedback for the data in the selected transmission time unit location, wherein when N=2, the predefined HARQ timing set is {n+k1, n+k2}, wherein a first HARQ timing location is a transmission time unit n+k1, a second HARQ timing location is a transmission time unit n+k2, k1 is an integer greater than or equal to 0, k2 is a positive integer, and k1 is less than k2; wherein the first device, on the transmission time unit n+k1 and the transmission time unit n+k2, transmits the HARQ feedback for the data received on the transmission time unit n. receiving (S 102), by a first device, data on a transmission time unit n of the first device; selecting, by the first device, a transmission time unit location for transmitting HARQ feedback according to a predefined HARQ timing set, wherein the predefined HARQ timing set comprises a number N of HARQ timing locations, and N is a positive integer greater than or equal to 2; and transmitting, by the first device, the HARQ feedback for the data in the selected transmission time unit location, wherein when N=2, the predefined HARQ timing set is {n+k1, n+k2}, wherein a first HARQ timing location is a transmission time unit n+k1, a second HARQ timing location is a transmission time unit n+k2, k1 is an integer greater than or equal to 0, k2 is a positive integer, and k1 is less than k2; wherein the first device, on the transmission time unit n+k1 and the transmission time unit n+k2, transmits the HARQ feedback for the data received on the transmission time unit n.
Method for operating a washing machine having a suds container arranged in a housing, in which container a drum is rotatably mounted, a loading opening arranged on the front of the housing that can be closed by means of a door having a door inspection glass, a door sealing ring which extends between the housing and the suds container around the loading opening, and an open-loop and/or closed-loop control device, the method comprising carrying out a selected washing programme which comprises a rinsing phase and in which water is applied to the door inspection glass and the door sealing ring following the rinsing phase in order to rinse the door inspection glass and the door sealing ring, characterised by the following step: carrying out a spinning process following the rinsing phase and before applying the water to the door inspection glass and the door sealing ring at a maximum rotational speed on the basis of the selected washing programme.