mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible hose assembly comprising: a fluoropolymer inner liner tube having radially internal and external facing surfaces; at least one groove recessed in the liner tube at the external facing surface, the at least one groove extending along a length of the liner tube, the internal facing surface being substantially smooth relative to the external facing surface; at least one first woven or braided thermally insulating layer in contact with and provided over the liner tube; at least one reinforcement layer in contact with and provided over the first thermally insulating layer; at least one second woven or braided thermally insulating layer in contact with and provided over the reinforcement layer; and at least one rubber cover layer in contact with and provided over the second thermally insulating layer. a fluoropolymer inner liner tube having radially internal and external facing surfaces; at least one groove recessed in the liner tube at the external facing surface, the at least one groove extending along a length of the liner tube, the internal facing surface being substantially smooth relative to the external facing surface; at least one first woven or braided thermally insulating layer in contact with and provided over the liner tube; at least one reinforcement layer in contact with and provided over the first thermally insulating layer; at least one second woven or braided thermally insulating layer in contact with and provided over the reinforcement layer; and at least one rubber cover layer in contact with and provided over the second thermally insulating layer.
A method of manufacturing an emissive LED display device, comprising the steps of: a) forming a plurality of chips (200; 300), each comprising at least one LED and, on a connection surface of the chip, a plurality of hydrophilic electric connection areas and a hydrophobic area , each electric connection area of the chip being surrounded and separated from the other electric connection areas of the chip by the hydrophobic area; b) forming a transfer substrate (250; 350) comprising, for each chip (200; 300), on a connection surface of the transfer substrate, a plurality of hydrophilic electric connection areas intended to be respectively connected to the electric connection areas of the chip, and a hydrophobic area , each electric connection area of the transfer substrate being surrounded and separated from the other electric connection areas of the transfer substrate by the hydrophobic area; c) arranging a drop of a liquid on each electric connection area of the transfer substrate (250; 350) and/or on each electric connection area of each chip (200; 300); and d) affixing the chips (200; 300) to the transfer substrate (250; 350) by direct bonding to electrically connect the electric connection areas of each chip to the corresponding electric connection areas of the transfer substrate, using the capillary restoring force of the drops to align the electric connection areas of the chips (200; 300) with the corresponding electric connection areas of the transfer substrate (250; 350). a) forming a plurality of chips (200; 300), each comprising at least one LED and, on a connection surface of the chip, a plurality of hydrophilic electric connection areas and a hydrophobic area , each electric connection area of the chip being surrounded and separated from the other electric connection areas of the chip by the hydrophobic area; b) forming a transfer substrate (250; 350) comprising, for each chip (200; 300), on a connection surface of the transfer substrate, a plurality of hydrophilic electric connection areas intended to be respectively connected to the electric connection areas of the chip, and a hydrophobic area , each electric connection area of the transfer substrate being surrounded and separated from the other electric connection areas of the transfer substrate by the hydrophobic area; c) arranging a drop of a liquid on each electric connection area of the transfer substrate (250; 350) and/or on each electric connection area of each chip (200; 300); and d) affixing the chips (200; 300) to the transfer substrate (250; 350) by direct bonding to electrically connect the electric connection areas of each chip to the corresponding electric connection areas of the transfer substrate, using the capillary restoring force of the drops to align the electric connection areas of the chips (200; 300) with the corresponding electric connection areas of the transfer substrate (250; 350).
A headset comprising a first and a second audio listening device to be placed in a respective ear of a user and a resilient cord adapted to extend behind the head of the user, each audio listening device having an inner side and an outer side , wherein the inner side is configured to face the ear when the audio listening device is placed in the ear of the user and the outer side is opposite to the inner side and directed radially away from the head of the user, wherein at least a portion of the inner side is adapted to be supported against the concha of the ear of the user, each audio listening device further comprising an ear support for holding the audio listening device in the ear of the user, wherein each ear support is attached to opposite ends of the resilient cord, whereby each ear support comprises: - an elongated support portion extending along a first longitudinal axis (X1, X1') and further adapted to rest on an upper part of an ear of the user, - an elongated leg which is interconnected with the elongated support portion by means of a first bend (B1, B1'), such that the elongated leg forms an acute angle (V1, V1') with the elongated support portion , whereby the ear support is attached to the outer side of the audio listening device such that the elongated leg is inclined in a direction from the outer side of the audio listening device towards the inner side of the audio listening device , wherein the elongated support portion has an end and wherein the resilient cord extends from the end of the elongated support portion , whereby, when the elongated support portion is pulled backwards by the resilient cord , the first bend (B1, B1') is pressed into firm contact with the side of the head of the user. - an elongated support portion extending along a first longitudinal axis (X1, X1') and further adapted to rest on an upper part of an ear of the user, - an elongated leg which is interconnected with the elongated support portion by means of a first bend (B1, B1'), such that the elongated leg forms an acute angle (V1, V1') with the elongated support portion , whereby the ear support is attached to the outer side of the audio listening device such that the elongated leg is inclined in a direction from the outer side of the audio listening device towards the inner side of the audio listening device , wherein the elongated support portion has an end and wherein the resilient cord extends from the end of the elongated support portion , whereby, when the elongated support portion is pulled backwards by the resilient cord , the first bend (B1, B1') is pressed into firm contact with the side of the head of the user.
A method that facilitates separating signals within a wireless communications environment , the method carried out by a wireless communications apparatus, the method comprising: verifying an Orthogonal Frequency-Division Multiplexing, OFDM, symbol duration between two or more carriers associated with an OFDM network, wherein verifying ensures a matching between the OFDM symbol duration between two or more carriers; employing a time synchronization to ensure signal receipt from the two or more carriers have a minimal time offset, wherein the minimal time offset is defined as the difference between the start of the OFDM symbols from the two or more carriers being not more than the length of the cyclic prefix; receiving a tone spacing from the two or more carriers; and calculating a carrier spacing, wherein the carrier spacing is the frequency offset between adjacent carrier frequencies, by increasing or decreasing at least one of the carrier frequencies so that the carrier spacing is an integer multiple of the tone spacing; and implementing the carrier spacing for the two or more carriers, wherein the carrier spacing is an integer multiple of the tone spacing. verifying an Orthogonal Frequency-Division Multiplexing, OFDM, symbol duration between two or more carriers associated with an OFDM network, wherein verifying ensures a matching between the OFDM symbol duration between two or more carriers; employing a time synchronization to ensure signal receipt from the two or more carriers have a minimal time offset, wherein the minimal time offset is defined as the difference between the start of the OFDM symbols from the two or more carriers being not more than the length of the cyclic prefix; receiving a tone spacing from the two or more carriers; and calculating a carrier spacing, wherein the carrier spacing is the frequency offset between adjacent carrier frequencies, by increasing or decreasing at least one of the carrier frequencies so that the carrier spacing is an integer multiple of the tone spacing; and implementing the carrier spacing for the two or more carriers, wherein the carrier spacing is an integer multiple of the tone spacing.
A device for stimulating certain organs of the body of a user in a standing or sitting position, characterized in that it comprises a platform , configured to be placed directly on the ground during use of the stimulation device, provided with feet and arranged so as to be able to support the user in a standing or sitting position, forces transmission means linked to the platform and positioned between the platform and the user during use of the stimulation device, the forces transmission means comprising securing means to the user, said securing means being symmetrically arranged on the left and right sides of the user during use of the stimulation device, wherein the forces transmission means are rigid under tension.
A method for wireless communication, comprising: receiving , at a user equipment, UE , an indication from a base station that identifies one or more features that are required to be supported by the UE for the UE to communicate on a set of resources; determining whether the one or more features as indicated by the base station are unsupported by the UE based at least in part on a release of a wireless standard supported by the UE ; and ignoring or communicating on the set of resources based at least in part on the determination. receiving , at a user equipment, UE , an indication from a base station that identifies one or more features that are required to be supported by the UE for the UE to communicate on a set of resources; determining whether the one or more features as indicated by the base station are unsupported by the UE based at least in part on a release of a wireless standard supported by the UE ; and ignoring or communicating on the set of resources based at least in part on the determination.
A flame-retardant composition comprising: (i) a thermoplastic polyurethane component; (ii) a polycarbonate polymer component, wherein the polycarbonate polymer component has a melt-flow rate greater than 30 g/10 minutes; and (iii) an inorganic phosphinate based flame retardant additive; wherein the composition is substantially free of acrylic polymers selected from the group consisting of homopolymers of methyl acrylate, copolymers of methyl methacrylate with n-butyl-methacraylate or ethyl acrylate or terpolymers of methyl methacrylate, n-butyl acrylate and styrene. (i) a thermoplastic polyurethane component; (ii) a polycarbonate polymer component, wherein the polycarbonate polymer component has a melt-flow rate greater than 30 g/10 minutes; and (iii) an inorganic phosphinate based flame retardant additive;
A flow system of a dialysis device comprising: a dialysate conduit which is capable of being in fluid communication with the peritoneal cavity of a patient's body and of being in fluid communication with a flow path, said flow path allowing dialysate to flow from a patient's body to a sorbent capable of removing contaminants within said dialysate in an outflow mode and in an inflow mode returning said dialysate substantially free of contaminants to said patient's body; only a single pump for moving said dialysate along said flow path in both the outflow mode and inflow mode; a plurality of valves disposed along said flow path and being configured to, in the outflow mode, allow said dialysate to flow from said dialysate conduit to said sorbent for removal of contaminants therein, and in the inflow mode, allow dialysate substantially free of said contaminants to flow back to said dialysate conduit for transmission to said patient's body; and a storage module in fluid communication with said flow path, said storage module configured to store dialysate that is substantially free of contaminants which have been removed by said sorbent . a dialysate conduit which is capable of being in fluid communication with the peritoneal cavity of a patient's body and of being in fluid communication with a flow path, said flow path allowing dialysate to flow from a patient's body to a sorbent capable of removing contaminants within said dialysate in an outflow mode and in an inflow mode returning said dialysate substantially free of contaminants to said patient's body; only a single pump for moving said dialysate along said flow path in both the outflow mode and inflow mode; a plurality of valves disposed along said flow path and being configured to, in the outflow mode, allow said dialysate to flow from said dialysate conduit to said sorbent for removal of contaminants therein, and in the inflow mode, allow dialysate substantially free of said contaminants to flow back to said dialysate conduit for transmission to said patient's body; and a storage module in fluid communication with said flow path, said storage module configured to store dialysate that is substantially free of contaminants which have been removed by said sorbent .
A method performed by a network node for handling a Single User, SU, Multiple Input Multiple Output, MIMO, transmission from a User Equipment, UE, in a wireless communications network , the method comprising: selecting an allowed precoding matrix set for the SU MIMO transmission, estimating full rank precoding matrix over a number of Transmission Time Intervals, TTIs, and estimating a precoded covariance matrix based on channel estimation according to the DMRS of the PUSCH received from the UE , and estimating a raw covariance matrix for the SU MIMO transmission, based on a Demodulation Reference Signal, DMRS, of a Physical Uplink Shared Channel, PUSCH, received from the UE , wherein estimating the raw covariance matrix for the SU MIMO transmission, based on the DMRS, of the PUSCH, received from the UE comprises estimating the raw covariance matrix for the SU MIMO transmission based on the estimated precoded covariance matrix and the estimated full rank precoding matrix, selecting a precoding matrix and a rank for the SU MIMO transmission, based on the estimated raw covariance matrix and the selected allowed precoding matrix set. selecting an allowed precoding matrix set for the SU MIMO transmission, estimating full rank precoding matrix over a number of Transmission Time Intervals, TTIs, and estimating a precoded covariance matrix based on channel estimation according to the DMRS of the PUSCH received from the UE , and estimating a raw covariance matrix for the SU MIMO transmission, based on a Demodulation Reference Signal, DMRS, of a Physical Uplink Shared Channel, PUSCH, received from the UE , wherein estimating the raw covariance matrix for the SU MIMO transmission, based on the DMRS, of the PUSCH, received from the UE comprises estimating the raw covariance matrix for the SU MIMO transmission based on the estimated precoded covariance matrix and the estimated full rank precoding matrix,
A compound of formula (Φ) or a pharmaceutically acceptable salt, hydrate or solvate, polymorph, or stereoisomer thereof: wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , and R 8 are each independently selected from hydrogen or deuterium; X 1 and X 2 are each independently selected from CH 3 , CD 3 , CHD 2 , or CH 2 D; Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 , Y 7 , Y 8 , Y 9 , Y 10 , and Y 11 are hydrogen; provided that the compound of the above formula contains at least one deuterium atom. R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , and R 8 are each independently selected from hydrogen or deuterium; X 1 and X 2 are each independently selected from CH 3 , CD 3 , CHD 2 , or CH 2 D; Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 , Y 7 , Y 8 , Y 9 , Y 10 , and Y 11 are hydrogen; provided that the compound of the above formula contains at least one deuterium atom.
A urine preservative composition in solid form, based on boric acid and D-mannitol, characterised in that said preservative composition consists of: - Boric acid from 37.0 to 69.7% by weight; - D-Mannitol from 9.6 to 16.2% by weight; - sodium bicarbonate and/or sodium carbonate from 18.0 to 25.0% by weight; - polyvinylpyrrolidone from 0.1 to 2% by weight; and - sodium citrate and/or potassium sorbate, from 0% to 24.2% by weight. - Boric acid from 37.0 to 69.7% by weight; - D-Mannitol from 9.6 to 16.2% by weight; - sodium bicarbonate and/or sodium carbonate from 18.0 to 25.0% by weight; - polyvinylpyrrolidone from 0.1 to 2% by weight; and - sodium citrate and/or potassium sorbate, from 0% to 24.2% by weight.
Lighting module for a motor vehicle headlight for producing at least one horizontal row of vertical rectangular bands , the module comprising: - light sources arranged in succession, notably along a curve, - a cylindrical reflector arranged so as to form, from the light emitted by each of the light sources, an image, and - a lens suitable for receiving light from each source originating from the reflector and for projecting the image of this source formed by the reflector in a vertical rectangular band , the module being characterized in that : - the reflector has, in a plane at right angles to the generatrices of the cylinder, a section conformed so as to increase a dimension of an image of each source by the reflector and such that an average value of a light flux in an upper half of the image of each source projected by the lens , that is to say in an upper half of each vertical rectangular band , is less than an average value of the flux in a lower half of the image, and - the lens has at least two focal points, even one focal area, and is arranged in such a way that the image formed by the lens of an object placed at one of these focal points is sharp and the lens is designed and arranged in such a way that a sharpness of an overall image of the sources supplied by the lens is maximal at at least two predetermined points of this image in comparison to other areas of the image. - light sources arranged in succession, notably along a curve, - a cylindrical reflector arranged so as to form, from the light emitted by each of the light sources, an image, and - a lens suitable for receiving light from each source originating from the reflector and for projecting the image of this source formed by the reflector in a vertical rectangular band , - the reflector has, in a plane at right angles to the generatrices of the cylinder, a section conformed so as to increase a dimension of an image of each source by the reflector and such that an average value of a light flux in an upper half of the image of each source projected by the lens , that is to say in an upper half of each vertical rectangular band , is less than an average value of the flux in a lower half of the image, and - the lens has at least two focal points, even one focal area, and is arranged in such a way that the image formed by the lens of an object placed at one of these focal points is sharp and the lens is designed and arranged in such a way that a sharpness of an overall image of the sources supplied by the lens is maximal at at least two predetermined points of this image in comparison to other areas of the image.
An apparatus, comprising: a plurality of blocks (BLKO-BLK31) of memory cells (702-716, 722-736, 742-756, 762-776), wherein in each block, the memory cells are arranged in vertical strings in a plurality of sub-blocks (SB0-SB3; SB0a-SB3a), wherein each block comprises conductive layers (SGSO, SGS1, WLD4, WLD3, WLLO-WLL10, WLD1, WLD2, SGD1, SGD0) spaced apart vertically, the conductive layers spaced apart vertically comprise word lines (WLD4, WLD3, WLLO-WLL10, WLD1, WLD2) connected to the memory cells, and the plurality of sub-blocks are arranged in a row on a substrate; wherein the conductive layers are elongated and have a common length (L) in a first direction, widths (w1-w4) of the conductive layers extend in a second direction, perpendicular to the first direction and perpendicular to a direction in which the vertical strings extend, and the widths vary along the row; and a control circuit ; characterized in that the control circuit is configured to provide a voltage ramping period for each sub-block, wherein the voltage ramping period is a function of a position of the sub-block in the row and of the width of a conductive layer of the sub-block, wherein, in a sensing or program-verify operation on a sub-block, the control circuit is configured to ramp a voltage applied to a conductive layer of the sub-block corresponding to the voltage ramping period for that sub-block. a plurality of blocks (BLKO-BLK31) of memory cells (702-716, 722-736, 742-756, 762-776), wherein in each block, the memory cells are arranged in vertical strings in a plurality of sub-blocks (SB0-SB3; SB0a-SB3a), wherein each block comprises conductive layers (SGSO, SGS1, WLD4, WLD3, WLLO-WLL10, WLD1, WLD2, SGD1, SGD0) spaced apart vertically, the conductive layers spaced apart vertically comprise word lines (WLD4, WLD3, WLLO-WLL10, WLD1, WLD2) connected to the memory cells, and the plurality of sub-blocks are arranged in a row on a substrate; wherein the conductive layers are elongated and have a common length (L) in a first direction, widths (w1-w4) of the conductive layers extend in a second direction, perpendicular to the first direction and perpendicular to a direction in which the vertical strings extend, and the widths vary along the row; and a control circuit ; characterized in that the control circuit is configured to provide a voltage ramping period for each sub-block, wherein the voltage ramping period is a function of a position of the sub-block in the row and of the width of a conductive layer of the sub-block, wherein, in a sensing or program-verify operation on a sub-block, the control circuit is configured to ramp a voltage applied to a conductive layer of the sub-block corresponding to the voltage ramping period for that sub-block.
A process for the production of solid refrigerants comprising the following steps: (a) adding seed crystals to a melt of menthol compounds, and (b) consistent dripping of the thus pre-scraped melt onto a pre-cooled surface. (a) adding seed crystals to a melt of menthol compounds, and (b) consistent dripping of the thus pre-scraped melt onto a pre-cooled surface.
A melt-blended polymer composition comprising: (a) a thermoplastic polymer; and (b) a transition metal in a positive oxidation state, the metal present in an amount of from 10 ppm to 400 ppm (c) a compound having the formula: (i) (ii) (iii) or (iv) wherein R 1 is chosen from: (i) -CH 3 ; (ii) -CHO; or (ii) a combination thereof; and the index n is equal to 1 or 2; and (d) optionally, at least one colorant. (a) a thermoplastic polymer; and (b) a transition metal in a positive oxidation state, the metal present in an amount of from 10 ppm to 400 ppm (c) a compound having the formula: (i) (ii) (iii) or (iv) wherein R 1 is chosen from: (i) -CH 3 ; (ii) -CHO; or (ii) a combination thereof; and the index n is equal to 1 or 2; and (i) (ii) (iii) or (iv) wherein R 1 is chosen from: (i) -CH 3 ; (ii) -CHO; or (ii) a combination thereof; and the index n is equal to 1 or 2; and (i) -CH 3 ; (ii) -CHO; or (ii) a combination thereof; and (d) optionally, at least one colorant.