mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor ultraviolet light avalanche photodetector, comprising: a body of silicon carbide comprising at least one first epitaxial layer and one second epitaxial layer (8; 108) having a first and a second conductivity type, respectively, and arranged on top of each other; the body having a non-planar body surface (3A; 103A), including a projecting portion (3A1), a sloped lateral portion (3A2), and an edge portion (3A3); an edge region (11; 111; 211; 311) of dielectric material, extending over the sloped lateral portion (3A2) and the edge portion (3A3) of the body surface ; an anode region , of the second conductivity type and formed by the second epitaxial layer (8; 108), the anode region being delimited by the projecting portion (3A1) and by the sloped lateral portion (3A2) of the body surface (3A; 103A) and being configured to receive ultraviolet light; a cathode region , of the first conductivity type and a first doping level, formed by the first epitaxial layer underneath the anode region ; and a buried region (10; 310; 410), of the first conductivity type and a second doping level, higher than the first doping level, extending between the anode region and the cathode region , the buried region being located underneath the projecting portion (3A1) of the body surface , characterized in that the buried region is spaced apart from the sloped lateral portion (3A2) of the body surface (3A; 103A) as well as from the edge region (11; 111; 211; 311). a body of silicon carbide comprising at least one first epitaxial layer and one second epitaxial layer (8; 108) having a first and a second conductivity type, respectively, and arranged on top of each other; the body having a non-planar body surface (3A; 103A), including a projecting portion (3A1), a sloped lateral portion (3A2), and an edge portion (3A3); an edge region (11; 111; 211; 311) of dielectric material, extending over the sloped lateral portion (3A2) and the edge portion (3A3) of the body surface ; an anode region , of the second conductivity type and formed by the second epitaxial layer (8; 108), the anode region being delimited by the projecting portion (3A1) and by the sloped lateral portion (3A2) of the body surface (3A; 103A) and being configured to receive ultraviolet light; a cathode region , of the first conductivity type and a first doping level, formed by the first epitaxial layer underneath the anode region ; and a buried region (10; 310; 410), of the first conductivity type and a second doping level, higher than the first doping level, extending between the anode region and the cathode region , the buried region being located underneath the projecting portion (3A1) of the body surface , characterized in that the buried region is spaced apart from the sloped lateral portion (3A2) of the body surface (3A; 103A) as well as from the edge region (11; 111; 211; 311).
A resin composition, comprising: an ethylene-vinyl ester copolymer saponified product (A) ; and fatty acid metal salts, wherein the fatty acid metal salts comprise at least two fatty acid metal salts selected from the group consisting of a fatty acid metal salt having 3 to 12 carbon atoms (B), a fatty acid metal salt having 13 to 20 carbon atoms (C), and a fatty acid metal salt having 21 to 29 carbon atoms (D), and wherein the all of the fatty acid metal salts selected from the fatty acid metal salts (B), (C), and (D) are a zinc salt, and wherein a total content of the zinc salt is from 0.0007 parts by weight to 0.025 parts by weight with respect to 100 parts by weight of the ethylene-vinyl ester copolymer saponified product (A) in terms of a metal. an ethylene-vinyl ester copolymer saponified product (A) ; and fatty acid metal salts, wherein the fatty acid metal salts comprise at least two fatty acid metal salts selected from the group consisting of a fatty acid metal salt having 3 to 12 carbon atoms (B), a fatty acid metal salt having 13 to 20 carbon atoms (C), and a fatty acid metal salt having 21 to 29 carbon atoms (D), and wherein the all of the fatty acid metal salts selected from the fatty acid metal salts (B), (C), and (D) are a zinc salt, and wherein a total content of the zinc salt is from 0.0007 parts by weight to 0.025 parts by weight with respect to 100 parts by weight of the ethylene-vinyl ester copolymer saponified product (A) in terms of a metal.
Process for preparing olefins from oxygenates, comprising the following steps: (i) heterogeneously catalysed conversion of the oxygenates in an oxygenate-to-olefin reactor (OTO reactor) under oxygenate conversion conditions to give a product stream containing water, olefins and other hydrocarbons and at least one oxygenate, (ii) quenching the product stream in at least one quench stage to obtain a gaseous stream G comprising hydrocarbons and olefins, a liquid aqueous stream W consisting predominantly of water and oxygenates, and a liquid stream O consisting predominantly of hydrocarbons and comprising olefins, (iii) separating stream G or a stream resulting therefrom and/or stream O or a stream resulting therefrom into a stream C4- consisting predominantly of hydrocarbons having four or fewer carbon atoms and comprising olefins and oxygenates, and into a stream C4+ consisting predominantly of hydrocarbons having four or more carbon atoms and comprising olefins, (iv) separating the stream C4- into a stream C2- containing ethylene and a stream C3+ comprising propylene, propane, C4 hydrocarbons and oxygenates, (v) separating the stream C3+ into a stream C3 comprising propylene and propane and into a stream C4-0 comprising C4 hydrocarbons and oxygenates, (vi) separating the stream C3 into a stream comprising propylene and into a stream comprising propane. (i) heterogeneously catalysed conversion of the oxygenates in an oxygenate-to-olefin reactor (OTO reactor) under oxygenate conversion conditions to give a product stream containing water, olefins and other hydrocarbons and at least one oxygenate, (ii) quenching the product stream in at least one quench stage to obtain a gaseous stream G comprising hydrocarbons and olefins, a liquid aqueous stream W consisting predominantly of water and oxygenates, and a liquid stream O consisting predominantly of hydrocarbons and comprising olefins, (iii) separating stream G or a stream resulting therefrom and/or stream O or a stream resulting therefrom into a stream C4- consisting predominantly of hydrocarbons having four or fewer carbon atoms and comprising olefins and oxygenates, and into a stream C4+ consisting predominantly of hydrocarbons having four or more carbon atoms and comprising olefins, (iv) separating the stream C4- into a stream C2- containing ethylene and a stream C3+ comprising propylene, propane, C4 hydrocarbons and oxygenates, (v) separating the stream C3+ into a stream C3 comprising propylene and propane and into a stream C4-0 comprising C4 hydrocarbons and oxygenates, (vi) separating the stream C3 into a stream comprising propylene and into a stream comprising propane.
A suture for lifting, the suture comprising: a medical fiber yarn ; fixing parts formed at one side of the fiber yarn and fixable to the skin; variable parts formed at the other side of the fiber yarn and laterally symmetrical with the fixing parts ; and said fixing parts and variable parts being formed by anchor parts protruding on the outer circumference of the fiber yarn, wherein the anchor parts are integrally formed with the fiber yarn by a double injection or by multiple injections of two or more injection stages; said suture being characterized in that said fiber yarn includes recesses or holes located to correspond to the anchor parts , and the anchor parts are integrally formed by injecting an anchor part material into the recesses or into the holes . a medical fiber yarn ; fixing parts formed at one side of the fiber yarn and fixable to the skin; variable parts formed at the other side of the fiber yarn and laterally symmetrical with the fixing parts ; and said fixing parts and variable parts being formed by anchor parts protruding on the outer circumference of the fiber yarn, wherein the anchor parts are integrally formed with the fiber yarn by a double injection or by multiple injections of two or more injection stages; said suture being characterized in that said fiber yarn includes recesses or holes located to correspond to the anchor parts , and the anchor parts are integrally formed by injecting an anchor part material into the recesses or into the holes .
An expandable spinal implant comprising: - a primary base member having a leading end and a trailing end and comprising an elongate slot , the elongate slot having a longitudinal axis parallel to a longitudinal axis of the primary base member , the elongate slot extending from the trailing end to a point proximate to the leading end ; - a movable base member having a leading end and a trailing end , an inner side surface and comprising an angled slot , the angled slot having a longitudinal axis that intersects a longitudinal axis of the movable base member , the angled slot extending from the trailing end to a point proximate to the leading end and comprising an opening that extends along the inner side surface thereof; - at least one guide member comprising a first end configured to be reversibly received within the primary base member and a second end configured to be received within the movable base member; and - an actuator comprising a first arm configured to slideably engage the elongate slot and a second arm configured to slideably engage the angled slot , - wherein the expandable spinal implant is configured to reversibly transition between an expanded configuration and a collapsed configuration, wherein the width of the implant is greater in the expanded configuration than in the collapsed configuration, - wherein by moving the actuator laterally along the elongate slot and the angled slot towards the leading end of the implant the spinal implant transitions from the collapsed configuration to the expanded configuration. - a primary base member having a leading end and a trailing end and comprising an elongate slot , the elongate slot having a longitudinal axis parallel to a longitudinal axis of the primary base member , the elongate slot extending from the trailing end to a point proximate to the leading end ; - a movable base member having a leading end and a trailing end , an inner side surface and comprising an angled slot , the angled slot having a longitudinal axis that intersects a longitudinal axis of the movable base member , the angled slot extending from the trailing end to a point proximate to the leading end and comprising an opening that extends along the inner side surface thereof; - at least one guide member comprising a first end configured to be reversibly received within the primary base member and a second end configured to be received within the movable base member; and - an actuator comprising a first arm configured to slideably engage the elongate slot and a second arm configured to slideably engage the angled slot , - wherein the expandable spinal implant is configured to reversibly transition between an expanded configuration and a collapsed configuration, wherein the width of the implant is greater in the expanded configuration than in the collapsed configuration, - wherein by moving the actuator laterally along the elongate slot and the angled slot towards the leading end of the implant the spinal implant transitions from the collapsed configuration to the expanded configuration.
A 3D-printed synthetic bone graft with a composition comprising calcium-deficient hydroxyapatite (CDHA) in an amount of at least 60 wt.% with respect to the total weight of the composition, optionally α-TCP and/or β-TCP, and having a binder content in the range of 5 wt.% or less, preferably in the range of 0.25 wt.% to 1 wt.% with respect to the total weight of the composition, wherein the composition has a macro-porosity in the range of 10 % to 60%, as determined by calculating the difference between the total porosity and the nano-micro porosity, wherein the nano-microporosity is determined by mercury intrusion porosimetry; and the macroporosity is defined as a pore entrance size larger than 10 μm, the pore entrance size being determined by mercury intrusion porosimetry. the nano-microporosity is determined by mercury intrusion porosimetry; and the macroporosity is defined as a pore entrance size larger than 10 μm, the pore entrance size being determined by mercury intrusion porosimetry.
Method for forming and updating logs of communication events occurring on user terminals (11 to 15, 17) that are liable to be connected to a communication network , characterized in that it comprises a processing step comprising the following substeps of: - receiving at least one item of information identifying a user, on the basis of an identifier of a connected terminal, and receiving the connection and communication service characteristics that are associated with all of the connected terminals of a user, on the basis of said at least one item of information identifying said user; - receiving, from a set of user terminals, at least one notification that is representative of a communication event including at least one identifier of the terminal transmitting and/or receiving said communication event; - updating at least one event log of a user on the basis of said at least one received event notification; and - transmitting said at least one updated event log to said connected terminals of the corresponding user. - receiving at least one item of information identifying a user, on the basis of an identifier of a connected terminal, and receiving the connection and communication service characteristics that are associated with all of the connected terminals of a user, on the basis of said at least one item of information identifying said user; - receiving, from a set of user terminals, at least one notification that is representative of a communication event including at least one identifier of the terminal transmitting and/or receiving said communication event; - updating at least one event log of a user on the basis of said at least one received event notification; and - transmitting said at least one updated event log to said connected terminals of the corresponding user.
A method of a node of a network determining a beam configuration of a beam (301-309, 311-313) used for transmission of data on a wireless link of the network , the method comprising: - exchanging, with a further node of the network , a beam sweep configuration , - transmitting and/or receiving pilot signals in a plurality of beams (301-309, 311-313) of at least one beam sweep (390-394) which is configured in accordance with the beam sweep configuration - determining the beam configuration based on a receive property of the pilot signals , and - selecting the beam sweep configuration from a plurality of candidate beam sweep configurations exchanged with the further node , wherein the beam sweep configuration is indicative of a time-duplex configuration of the plurality of beams (301-309, 311-313) of each beam sweep (390-394) of the at least one beam sweep (390-394). - exchanging, with a further node of the network , a beam sweep configuration , - transmitting and/or receiving pilot signals in a plurality of beams (301-309, 311-313) of at least one beam sweep (390-394) which is configured in accordance with the beam sweep configuration - determining the beam configuration based on a receive property of the pilot signals , and - selecting the beam sweep configuration from a plurality of candidate beam sweep configurations exchanged with the further node ,
A method executed by at least one processor of a first compute node performing the steps of: establishing a persistent control path with a second compute node ; establishing an on-demand data path 219) with the second compute node; communicating control information to the second compute node via the persistent control path while simultaneously communicating content to the second compute node via the on-demand data path characterized by promptly disabling the established on-demand data path after communicating the content to the second compute node while simultaneously maintaining the persistent control path after communicating the control information to the second compute node . establishing a persistent control path with a second compute node ; establishing an on-demand data path 219) with the second compute node; communicating control information to the second compute node via the persistent control path while simultaneously communicating content to the second compute node via the on-demand data path characterized by promptly disabling the established on-demand data path after communicating the content to the second compute node while simultaneously maintaining the persistent control path after communicating the control information to the second compute node .
An apparatus for releasably coupling a second trailer to a first trailer that is releasably coupled to a towing vehicle in a tractor-trailer vehicle configuration, the apparatus comprising: - a frame ; - a first trailer connector assembly for releasably coupling the apparatus to the first trailer such that the apparatus translates with the first trailer; - a second trailer connector assembly for releasably coupling the apparatus to the second trailer such that the second trailer translates with the apparatus; - a pair of wheels rotatably coupled to the frame; - an energy storing device for storing electrical energy; - a pair of motor-generators , each motor-generator , independently, being operably coupled to one of the wheels in the pair of wheels and to the energy storing device , such that each motor-generator is operable in: - a drive mode for applying a motive rotational force to its respective wheel; and - a generator mode for applying a regenerative braking force to its respective wheel for converting mechanical energy generated by rotation of the wheel to electrical energy wherein the generated electrical energy is stored on the energy-storing device; and - a controller for selectively activating the drive mode or the generator mode of each motor-generator. - a frame ; - a first trailer connector assembly for releasably coupling the apparatus to the first trailer such that the apparatus translates with the first trailer; - a second trailer connector assembly for releasably coupling the apparatus to the second trailer such that the second trailer translates with the apparatus; - a pair of wheels rotatably coupled to the frame; - an energy storing device for storing electrical energy; - a pair of motor-generators , each motor-generator , independently, being operably coupled to one of the wheels in the pair of wheels and to the energy storing device , such that each motor-generator is operable in: - a drive mode for applying a motive rotational force to its respective wheel; and - a generator mode for applying a regenerative braking force to its respective wheel for converting mechanical energy generated by rotation of the wheel to electrical energy wherein the generated electrical energy is stored on the energy-storing device; and - a drive mode for applying a motive rotational force to its respective wheel; and - a generator mode for applying a regenerative braking force to its respective wheel for converting mechanical energy generated by rotation of the wheel to electrical energy wherein the generated electrical energy is stored on the energy-storing device; and - a controller for selectively activating the drive mode or the generator mode of each motor-generator.
Vibration device for stimulation of tissue in a nasal cavity of a patient, comprising: expandable stimulation means ; expansion means for expanding the stimulation means from a first, unexpanded state to a second, expanded state, wherein the expansion means comprises at least one channel for supplying fluid to the stimulation means to achieve said expansion, wherein the stimulation means is arranged partly around the expansion means such that one end of the expansion means is located inside the stimulation means, and an externally arranged vibration source arranged outside the stimulation means, characterized in that said vibration source being configured to bring the stimulation means to vibrate at a frequency of 60-100 Hz; wherein the stimulation means is configured, in the first, unexpanded state to be capable of being introduced via a nostril into the nasal cavity, and in the second, expanded state to be expanded to a volume such that the stimulation means abuts against the tissue within the nasal cavity. expandable stimulation means ; expansion means for expanding the stimulation means from a first, unexpanded state to a second, expanded state, wherein the expansion means comprises at least one channel for supplying fluid to the stimulation means to achieve said expansion, wherein the stimulation means is arranged partly around the expansion means such that one end of the expansion means is located inside the stimulation means, and an externally arranged vibration source arranged outside the stimulation means, characterized in that said vibration source being configured to bring the stimulation means to vibrate at a frequency of 60-100 Hz; wherein the stimulation means is configured, in the first, unexpanded state to be capable of being introduced via a nostril into the nasal cavity, and in the second, expanded state to be expanded to a volume such that the stimulation means abuts against the tissue within the nasal cavity. an externally arranged vibration source arranged outside the stimulation means, characterized in that said vibration source being configured to bring the stimulation means to vibrate at a frequency of 60-100 Hz; wherein the stimulation means is configured, in the first, unexpanded state to be capable of being introduced via a nostril into the nasal cavity, and in the second, expanded state to be expanded to a volume such that the stimulation means abuts against the tissue within the nasal cavity.