mhurhangee/patent-ind-claim-en huggingface dataset:
A patient interface for sealed delivery of a flow of air at a continuously positive pressure with respect to ambient air pressure to an entrance to the patient's airways including at least an entrance of a patient's nares, wherein the patient interface is configured to maintain a therapy pressure in a range of about 4 cmH2O to about 30 cmH2O above ambient air pressure in use, throughout the patient's respiratory cycle, while the patient is sleeping, to ameliorate sleep disordered breathing; said patient interface comprising: a frame made from a textile material, the frame having a predetermined three-dimensional shape that is maintained throughout the patient's respiratory cycle; and a seal-forming structure provided to the frame, the seal-forming structure including a nasal cushion configured and arranged to form a seal around a lower portion of the patient's nose below the patient's nasal bridge, and the seal-forming structure further including a mouth cushion configured and arranged to form a seal around at least a portion of the patient's mouth at least along the sides of the mouth and along the lower lip/chin region, wherein the nasal cushion includes a foam material and a textile material, a surface of the textile material being adapted to contact the patient's face to create a seal against the patient's face, and wherein the mouth cushion includes a foam material , a surface of the foam material being adapted to contact the patient's face to create a seal against the patient's face, wherein the frame is more rigid than the seal-forming structure to support the seal-forming structure in use. a frame made from a textile material, the frame having a predetermined three-dimensional shape that is maintained throughout the patient's respiratory cycle; and a seal-forming structure provided to the frame, the seal-forming structure including a nasal cushion configured and arranged to form a seal around a lower portion of the patient's nose below the patient's nasal bridge, and the seal-forming structure further including a mouth cushion configured and arranged to form a seal around at least a portion of the patient's mouth at least along the sides of the mouth and along the lower lip/chin region, wherein the nasal cushion includes a foam material and a textile material, a surface of the textile material being adapted to contact the patient's face to create a seal against the patient's face, and wherein the mouth cushion includes a foam material , a surface of the foam material being adapted to contact the patient's face to create a seal against the patient's face, wherein the frame is more rigid than the seal-forming structure to support the seal-forming structure in use.
An antenna device comprising: an array antenna including a plurality of element antennas (3-1 to 3-K) for radiating carrier wave signals; a communication signal generating unit for generating a communication signal that is a signal to be communicated; an interference signal generating unit (12; 90) for generating an interference signal to be an interference wave of the communication signal by adjusting a phase of the communication signal generated by the communication signal generating unit; an excitation distribution calculating unit (13; 91; 101) for calculating each of an excitation distribution of a communication beam, which is a radio wave for transmitting the communication signal, and an excitation distribution of an interference beam, which is a radio wave for transmitting the interference signal, wherein a sum of a square of an excitation amplitude of the communication beam and a square of an excitation amplitude of the interference beam is the same for each of the plurality of element antennas (3-1 to 3-K); an excitation distribution synthesizing unit for synthesizing the excitation distribution of the communication beam and the excitation distribution of the interference beam each calculated by the excitation distribution calculating unit ; and a phase control unit (30; 80) for respectively controlling phases of the carrier wave signals to be given to the plurality of element antennas (3-1 to 3-K) in accordance with an excitation distribution after synthesis by the excitation distribution synthesizing unit . an array antenna including a plurality of element antennas (3-1 to 3-K) for radiating carrier wave signals; a communication signal generating unit for generating a communication signal that is a signal to be communicated; an interference signal generating unit (12; 90) for generating an interference signal to be an interference wave of the communication signal by adjusting a phase of the communication signal generated by the communication signal generating unit; an excitation distribution calculating unit (13; 91; 101) for calculating each of an excitation distribution of a communication beam, which is a radio wave for transmitting the communication signal, and an excitation distribution of an interference beam, which is a radio wave for transmitting the interference signal, wherein a sum of a square of an excitation amplitude of the communication beam and a square of an excitation amplitude of the interference beam is the same for each of the plurality of element antennas (3-1 to 3-K); an excitation distribution synthesizing unit for synthesizing the excitation distribution of the communication beam and the excitation distribution of the interference beam each calculated by the excitation distribution calculating unit ; and a phase control unit (30; 80) for respectively controlling phases of the carrier wave signals to be given to the plurality of element antennas (3-1 to 3-K) in accordance with an excitation distribution after synthesis by the excitation distribution synthesizing unit .
A surgical instrument apparatus comprising: (a) a handle portion ; (b) a shaft housing a firing bar ; (c) an end effector comprising an anvil , a lower jaw , and a stapling and severing assembly responsive to a longitudinal closing motion produced by the handle portion and the shaft; (d) a removable cartridge , wherein the lower jaw is configured to receive the cartridge, the cartridge comprising: (i) a housing , (ii) a plurality of staples disposed in the housing, (iii) a deck disposed over the plurality of staples, the deck defining apertures, wherein each aperture is substantially disposed over a respective staple, (iv) at least a first biocompatible material disposed in the cartridge, and (v) at least a second biocompatible material disposed on the deck; characterised in that the surgical instrument apparatus comprises: (e) a pocket and an envelope , wherein the pocket is defined in the cartridge, wherein the pocket is disposed below the deck and above the plurality of staples, wherein the pocket is configured to receive the envelope, and wherein the envelope comprises the first biocompatible material. (a) a handle portion ; (b) a shaft housing a firing bar ; (c) an end effector comprising an anvil , a lower jaw , and a stapling and severing assembly responsive to a longitudinal closing motion produced by the handle portion and the shaft; (d) a removable cartridge , wherein the lower jaw is configured to receive the cartridge, the cartridge comprising: (i) a housing , (ii) a plurality of staples disposed in the housing, (iii) a deck disposed over the plurality of staples, the deck defining apertures, wherein each aperture is substantially disposed over a respective staple, (iv) at least a first biocompatible material disposed in the cartridge, and (v) at least a second biocompatible material disposed on the deck; (i) a housing , (ii) a plurality of staples disposed in the housing, (iii) a deck disposed over the plurality of staples, the deck defining apertures, wherein each aperture is substantially disposed over a respective staple, (iv) at least a first biocompatible material disposed in the cartridge, and (v) at least a second biocompatible material disposed on the deck;
An aqueous composition comprising at least one hydrophobic compound having at least one linkage of Formula I: - NHC(O)-X- (I) wherein the linkage of Formula (I) comprises 30 to 100% by mol of the total urethane linkages in the hydrophobic compound; X is the residue of a cyclic or acyclic sugar alcohol which is substituted with at least two -R 1 ; -C(O)R 1 ; -(CH 2 CH 2 O) n (CH(CH 3 )CH 2 O) m C(O)R 1 ; or mixtures thereof; where the cyclic or acyclic sugar alcohol is selected from glucose, glyceraldehyde, erythrose, arabinose, ribose, allose, altrose, mannose, xylose, lyxose, gulose, galactose, talose, fructose, ribulose, mannoheptulose, sedoheptulose, threose, erythritol, threitol, glucopyranose, mannopyranose, talopyranose, allopyranose, altropyranose, idopyranose, gulopyranose, glucitol, mannitol, sorbitol, arabitol, xylitol, ribitol, galactitol, fucitol, iditol, inositol, dipentaerythritol, volemitol, gluconic acid, glyceric acid, xylonic acid, galactaric acid, ascorbic acid, gluconic acid lactone, glyceric acid lactone, xylonic acid lactone, glucosamine, galactosamine, or mixtures thereof; wherein each n is independently 0 to 20; each m is independently 0 to 20; m+n is greater than 0; and each R 1 is independently a linear or branched alkyl group having 5 to 29 carbons optionally comprising at least 1 unsaturated bond. the linkage of Formula (I) comprises 30 to 100% by mol of the total urethane linkages in the hydrophobic compound; X is the residue of a cyclic or acyclic sugar alcohol which is substituted with at least two -R 1 ; -C(O)R 1 ; -(CH 2 CH 2 O) n (CH(CH 3 )CH 2 O) m C(O)R 1 ; or mixtures thereof; where the cyclic or acyclic sugar alcohol is selected from glucose, glyceraldehyde, erythrose, arabinose, ribose, allose, altrose, mannose, xylose, lyxose, gulose, galactose, talose, fructose, ribulose, mannoheptulose, sedoheptulose, threose, erythritol, threitol, glucopyranose, mannopyranose, talopyranose, allopyranose, altropyranose, idopyranose, gulopyranose, glucitol, mannitol, sorbitol, arabitol, xylitol, ribitol, galactitol, fucitol, iditol, inositol, dipentaerythritol, volemitol, gluconic acid, glyceric acid, xylonic acid, galactaric acid, ascorbic acid, gluconic acid lactone, glyceric acid lactone, xylonic acid lactone, glucosamine, galactosamine, or mixtures thereof; wherein each n is independently 0 to 20; each m is independently 0 to 20; m+n is greater than 0; and each R 1 is independently a linear or branched alkyl group having 5 to 29 carbons optionally comprising at least 1 unsaturated bond.
A method for transmitting data from a first node to a second node of a source-selected path routing network , comprising the steps of: a) receiving a first data packet at the first node , wherein said data packet was sent from a source node according to next-hop routing; b) transmitting at least part of the data contained in the data packet from the first node to the second node according to source-selected path routing; c) transmitting the data received at the second node to a destination node according to next-hop routing; further comprising d) determining , by a gateway device comprised in the first node , the second node based on destination information related to the destination node and based on a load and/or a reachability and a geographic location of the second node ; e) determining , by the gateway device , for at least a subset of a plurality of available paths between the first node and the second node , a plurality of path parameters; f) determining , by the gateway device , a plurality of attributes related to the first data packet ; g) selecting , by the gateway device , a preferred path from the plurality of available paths based on a decision rule, said decision rule specifying, for at least one attribute, a preferred range of path parameters, wherein the first node and the source node belong to a first subnet of a packet switched network or to a first packet switched network and wherein the second node and the destination node belong to a second subnet of the packet switched network or to a second packet switched network and wherein the first subnet is different from the second subnet , and/or the first packet switched network is different from the second packet switched network. a) receiving a first data packet at the first node , wherein said data packet was sent from a source node according to next-hop routing; b) transmitting at least part of the data contained in the data packet from the first node to the second node according to source-selected path routing; c) transmitting the data received at the second node to a destination node according to next-hop routing; further comprising d) determining , by a gateway device comprised in the first node , the second node based on destination information related to the destination node and based on a load and/or a reachability and a geographic location of the second node ; e) determining , by the gateway device , for at least a subset of a plurality of available paths between the first node and the second node , a plurality of path parameters; f) determining , by the gateway device , a plurality of attributes related to the first data packet ; g) selecting , by the gateway device , a preferred path from the plurality of available paths based on a decision rule, said decision rule specifying, for at least one attribute, a preferred range of path parameters,
A method for processing a radio link failure, comprising: under a specified state, after receiving a report of out of synchronization of a physical layer, a terminal device starting a delay timer, wherein, the specified state comprises a CELL_FACH state or an idle mode; the terminal device determining whether to process the radio link failure according to whether a synchronization indication of the physical layer is received before the delay timer expires. under a specified state, after receiving a report of out of synchronization of a physical layer, a terminal device starting a delay timer, wherein, the specified state comprises a CELL_FACH state or an idle mode; the terminal device determining whether to process the radio link failure according to whether a synchronization indication of the physical layer is received before the delay timer expires.
Vapour extraction apparatus with an exhaust shaft , which forms an outlet opening for at least one vapour trap at the upper end thereof, which vapour trap is displaceably mounted in the exhaust shaft and forms at least one exhaust gap , wherein the vapour trap consists of at least two flat screen elements that can be displaced separately from one another in relation to the exhaust shaft , characterised in that at least one part of the exhaust gap is formed between the upper edge of the screen elements that are adjacent to one another, that the exhaust gap lies in the horizontal or at an incline in relation thereto and that at least one of the at least two screen elements protrudes at least partially beyond the outlet opening of the exhaust shaft in at least one position of the vapour extraction apparatus .
A variable vane system for a gas turbine engine, comprising: an actuator ; a unison ring , the unison ring including a multiple of pins , wherein the unison ring is "U" shaped in cross-section; a multiple of supports that support the unison ring , the multiple of supports each being generally cross-shaped to support a multiple of rollers , the multiple of rollers operable to support the unison ring , wherein the multiple of rollers interact with an upper surface , a forward surface , and an aft surface of the unison ring ; and a multiple of variable vanes driven by the unison ring , each of the multiple of variable vanes connected to the unison ring through a respective drive arm that includes a slot which receives one of the multiple of pins to accommodate axial motion of the unison ring , wherein, the system further comprises a harmonic drive driven by the actuator , wherein the unison ring is driven by the harmonic drive through a drive shaft . an actuator ; a unison ring , the unison ring including a multiple of pins , wherein the unison ring is "U" shaped in cross-section; a multiple of supports that support the unison ring , the multiple of supports each being generally cross-shaped to support a multiple of rollers , the multiple of rollers operable to support the unison ring , wherein the multiple of rollers interact with an upper surface , a forward surface , and an aft surface of the unison ring ; and a multiple of variable vanes driven by the unison ring , each of the multiple of variable vanes connected to the unison ring through a respective drive arm that includes a slot which receives one of the multiple of pins to accommodate axial motion of the unison ring , wherein, the system further comprises a harmonic drive driven by the actuator , wherein the unison ring is driven by the harmonic drive through a drive shaft .
A fuel injection assembly having a longitudinal axis (L) and comprising - an elongate fuel injector having a fuel inlet port and a fuel outlet port, - an injector cup , - a holding element for securing the fuel injector to the injector cup , and - a spring clip wherein - the injector cup comprises a generally cylindrical body extending along the axis L and having an upper and a lower end, the cup having a cavity at its lower end adapted to receive a fuel inlet port of the fuel injector , - a first opening or openings are formed in the peripheral wall of the injector cup for receiving the holding element , - the holding element is generally U-shaped having two generally parallel arms shaped and positioned to engage opposite lateral sides of an annular groove in the fuel injector to secure the fuel injector in the injector cup , characterized in that when inserted in the injector cup , the free ends of the two arms of the holding element project from the injector cup , and have adjacent the free ends a retention arrangement engageable by the spring clip , wherein the spring clip is secured to the surface of the injector cup having at least one depending leg engageable in a corresponding receiving part on the fuel injector to accurately locate the angular position the fuel injector relative to the injector cup . - an elongate fuel injector having a fuel inlet port and a fuel outlet port, - an injector cup , - a holding element for securing the fuel injector to the injector cup , and - a spring clip wherein - the injector cup comprises a generally cylindrical body extending along the axis L and having an upper and a lower end, the cup having a cavity at its lower end adapted to receive a fuel inlet port of the fuel injector , - a first opening or openings are formed in the peripheral wall of the injector cup for receiving the holding element , - the holding element is generally U-shaped having two generally parallel arms shaped and positioned to engage opposite lateral sides of an annular groove in the fuel injector to secure the fuel injector in the injector cup , characterized in that
System for feed-back communication in real-time in a telecommunication network, the system comprising a server holding a communication service and client devices connected to the server, characterized by the communication service continuously receiving client device information of the identification and location of the client devices , holding an algorithm, which continuously creates status and comparison information of each individual client device in real-time as compared to any other client device(s) , having means for managing the comparison information created by the algorithm in the form of a unique client-wise feed-back report based on the information for a given point of time, and sent to each client device , the report received by each client device being mutually different and subjective describing the location with respect to a given client device in relation to at least one other client device , each client device acting or deciding on actions of how to move further based on the received status and comparison information, the decisions and actions made by each client device being mutually different.
A method for performing a selective laser melting of metal powder to manufacture an object , comprising the following steps: - scanning a metal powder bed by means of a laser beam configured to complete a plurality of melting paths so as to build a plurality of confinement sections , each having its own predefined width, said confinement sections delimiting between them a confinement space (C) having a predefined width; - scanning a metal powder bed by means of a laser beam configured to complete at least one melting path within the confinement space (C) so as to selectively melt the material present in said confinement space (C) in order to build an intermediate section having a predefined width - characterised in adjusting the intensity of the laser beam between at least a first intensity value corresponding to the scanning step for building a plurality of confinement sections and a second intensity value corresponding to the scanning step for building at least one intermediate section , wherein the first intensity value corresponding to the scanning step for building a plurality of confinement sections is lower than the second intensity value corresponding to the scanning step for building at least one intermediate section . - scanning a metal powder bed by means of a laser beam configured to complete a plurality of melting paths so as to build a plurality of confinement sections , each having its own predefined width, said confinement sections delimiting between them a confinement space (C) having a predefined width; - scanning a metal powder bed by means of a laser beam configured to complete at least one melting path within the confinement space (C) so as to selectively melt the material present in said confinement space (C) in order to build an intermediate section having a predefined width - characterised in adjusting the intensity of the laser beam between at least a first intensity value corresponding to the scanning step for building a plurality of confinement sections and a second intensity value corresponding to the scanning step for building at least one intermediate section , wherein the first intensity value corresponding to the scanning step for building a plurality of confinement sections is lower than the second intensity value corresponding to the scanning step for building at least one intermediate section .