mhurhangee/patent-ind-claim-en huggingface dataset:
Method for extracting at least one audio object from at least two audio input signals (a1, a2), each of which contains the audio object , the method comprising the following steps: - synchronizing (V1) the second audio input signal (a2) with the first audio input signal (a1) to obtain a synchronized second audio input signal (a2'), - extracting (V2) the audio object by applying at least one trained model to the first audio signal (a1) and to the synchronized second audio input signal (a2'), and - outputting (V3) the audio object , wherein the method step of synchronizing (V1) the second audio input signal (a2) with the first audio input signal (a1) comprises the following method steps: - generating (V4) audio signals (m1, m2) by applying a first trained operator to the audio input signals (a1, a2), - analytically calculating (V5) a correlation between the audio signals (m1, m2) to obtain a correlation vector (k), - optimizing (V6) the correlation vector (k) using a second trained operator to obtain a synchronization vector (s) and - determining (V7) the synchronized second audio input signal (a2') using the synchronization vector (s), characterized in that the second trained operator has an iterative method with a finite number of iteration steps (I). - synchronizing (V1) the second audio input signal (a2) with the first audio input signal (a1) to obtain a synchronized second audio input signal (a2'), - extracting (V2) the audio object by applying at least one trained model to the first audio signal (a1) and to the synchronized second audio input signal (a2'), and - outputting (V3) the audio object , - generating (V4) audio signals (m1, m2) by applying a first trained operator to the audio input signals (a1, a2), - analytically calculating (V5) a correlation between the audio signals (m1, m2) to obtain a correlation vector (k), - optimizing (V6) the correlation vector (k) using a second trained operator to obtain a synchronization vector (s) and - determining (V7) the synchronized second audio input signal (a2') using the synchronization vector (s),
A network authentication system, comprising: user equipment, a network authentication network element, and a slice authentication network element, wherein the user equipment is configured to send an access request to the network authentication network element, wherein the access request carries identification information of the user equipment; the network authentication network element is configured to: receive the access request; verify whether some or all of the identification information is valid; and if some or all of the identification information is valid, determine, based on the some or all of the identification information that is valid, a slice authentication network element corresponding to the user equipment, and send the some or all of the identification information to the slice authentication network element corresponding to the user equipment; the slice authentication network element is configured to: receive the some or all of the identification information sent by the network authentication network element, generate authentication data for the user equipment based on the some or all of the identification information, and initiate a user authentication request to the user equipment by using the authentication data; and the user equipment is further configured to: receive the user authentication request initiated by the slice authentication network element, and respond to the user authentication request.
A bearing assembly for supporting a pivotable member , the bearing assembly comprising a laminated bearing including a generally cylindrical body having a centerline and a central bore for receiving at least a portion of the pivotable member, the body being formed of a plurality of alternating, generally tubular elastomeric and metallic laminae nested coaxially about the central axis , each one of the elastomeric and metallic laminae having opposing axial ends; wherein the bearing assembly further includes at least one thermally conductive member coupled with one of the two axial ends of one of the metallic laminae and extending generally axially from the body so as to provide a heat sink, characterized in that the at least one conductive member includes one of a further generally cylindrical body and generally arcuate body and has an inner axial end attached to the one metallic lamina and an opposing, outer axial end spaced axially from the body , which is a bearing body.
A sending method, comprising: Receiving, by a sending apparatus, first indication information for uplink data transmission, wherein the first indication information is used to indicate a frequency resource for the uplink data transmission, and the frequency resource comprises N subcarriers; and sending, by the sending apparatus, an uplink reference signal associated with the uplink data transmission, wherein a length of a sequence of the uplink reference signal is M; wherein a frequency resource occupied by the sequence of the uplink reference signal is M intermediate subcarriers of the N subcarriers, and characterized in that : a roll-off factor of a filter for the uplink data transmission is not greater than 2 M N − 1 , and N / 2 ≤ M < N , wherein N is a positive integer, and M is a positive integer, Receiving, by a sending apparatus, first indication information for uplink data transmission, wherein the first indication information is used to indicate a frequency resource for the uplink data transmission, and the frequency resource comprises N subcarriers; and sending, by the sending apparatus, an uplink reference signal associated with the uplink data transmission, wherein a length of a sequence of the uplink reference signal is M; wherein a frequency resource occupied by the sequence of the uplink reference signal is M intermediate subcarriers of the N subcarriers, and characterized in that : a roll-off factor of a filter for the uplink data transmission is not greater than 2 M N − 1 , and N / 2 ≤ M < N , wherein N is a positive integer, and M is a positive integer,
A trap including: a bait , a support, and an elastic band , wherein the trap is configured such that in a set state the support supports the elastic band in an expanded state, and characterised in that the bait is configured to maintain the support to support the elastic band such that removal, consumption or destruction of the bait by an animal allows the support to collapse to either: cause the elastic band to contract around the animal to kill the animal; or cause the elastic band to drive a kill mechanism to kill the animal. a bait , a support, and an elastic band , wherein the trap is configured such that in a set state the support supports the elastic band in an expanded state, and characterised in that the bait is configured to maintain the support to support the elastic band such that removal, consumption or destruction of the bait by an animal allows the support to collapse to either: cause the elastic band to contract around the animal to kill the animal; or cause the elastic band to drive a kill mechanism to kill the animal.
A bearing component which is an annular member with a two-dimensional code (M) in marked dots which has a shape with a maximum circumferential dimension (Lw) longer than a maximum radial dimension (Lh) or a maximum axial dimension, characterized in that at least one dot row among a plurality of dot rows arranged in a longitudinal direction of the two-dimensional code (M) has a line pattern in which all dots are marked, wherein said line pattern has said maximum circumferential dimension (Lw).
A microgravity urine storage apparatus comprising: a bellows defining an internal chamber having an adjustable volume, the bellows comprising a bellows inlet and a bellows outlet, characterised by a housing defining an internal cavity having a fixed volume, the housing comprising a housing inlet and a housing outlet ; an absorbent medium disposed within the internal chamber of the bellows, the absorbent medium configured to absorb urine; and a retention feature mounted to the housing, wherein the retention feature is selectively deployable in a retention mode and a released mode, wherein in the retention mode the retention feature secures the bellows in a contracted state, and wherein in the released mode the retention feature is disengaged from the bellows. a housing defining an internal cavity having a fixed volume, the housing comprising a housing inlet and a housing outlet ; an absorbent medium disposed within the internal chamber of the bellows, the absorbent medium configured to absorb urine; and a retention feature mounted to the housing, wherein the retention feature is selectively deployable in a retention mode and a released mode, wherein in the retention mode the retention feature secures the bellows in a contracted state, and wherein in the released mode the retention feature is disengaged from the bellows.
A fixing kit for mounting a plumbing fitting on a deck , said deck having a surface with an opening , the fixing kit including a base part arranged, in use, on an underside of the deck , characterized in that the fixing kit includes at least two elongate coupling members connectable to the plumbing fitting so as to extend, in use, through the opening in the deck and at least two fastening members connected to the base part, the fastening members being axially retained and rotatable relative to the base part , wherein the elongate coupling members and fastening members have co-operating threaded portions such that, in use, the plumbing fitting is secured to the deck by tightening the fastening members to urge the base part against the underside of the deck and the elongate coupling members and fastening members have co-operating threaded portions configured so that fewer turns are required to tighten at least one of the fastening members .
An endoluminal surgical robotic system configured for performing bronchoscopy, comprising: - a robotically driven endoscopic tool , comprising a fiber optic shape sensor; - a command console configured to allow an operator to remotely control the endoscopic tool ; - a display module configured to display a predetermined three-dimensional model of an anatomical space, a predetermined optimal navigation path, and a model of the endoscopic tool; - a tracking and mapping system, configured for tracking the distal end of the endoscopic tool and mapping it within the model of the anatomical space, wherein the tracking is based on: an output of the fiber optic shape sensor, a relative insertion length of the endoscopic tool relative to a starting position within a trachea of a patient, and one or more centerlines of the model of the anatomical space, wherein the tracking and mapping system is configured for estimating the location of the distal end of the endoscopic tool after determining whether the endoscopic tool is located in a branch and the distance traveled down that branch. - a robotically driven endoscopic tool , comprising a fiber optic shape sensor; - a command console configured to allow an operator to remotely control the endoscopic tool ; - a display module configured to display a predetermined three-dimensional model of an anatomical space, a predetermined optimal navigation path, and a model of the endoscopic tool; - a tracking and mapping system, configured for tracking the distal end of the endoscopic tool and mapping it within the model of the anatomical space, wherein the tracking is based on: an output of the fiber optic shape sensor, a relative insertion length of the endoscopic tool relative to a starting position within a trachea of a patient, and one or more centerlines of the model of the anatomical space, wherein the tracking and mapping system is configured for estimating the location of the distal end of the endoscopic tool after determining whether the endoscopic tool is located in a branch and the distance traveled down that branch. an output of the fiber optic shape sensor, a relative insertion length of the endoscopic tool relative to a starting position within a trachea of a patient, and one or more centerlines of the model of the anatomical space,
A high temperature component having calcium magnesium aluminosilicate (CMAS) mitigation capability comprising: at least one of a CMC or monolithic ceramic component and an environmental barrier coating provided on the CMC or monolithic ceramic component, the environmental barrier coating including: a bond coat layer adjacent the component; an optional silica layer adjacent the bond coat layer; at least one transition layer adjacent the underlying one of the bond coat layer and the optional silica layer; an optional outer layer ; and a CMAS mitigation layer adjacent the underlying one of the transition layer and the optional outer layer, wherein the CMAS mitigation layer is either an integrated CMAS mitigation layer or a separate CMAS mitigation layer, characterized in that , when the CMAS mitigation layer is an integrated CMAS mitigation layer , the integrated CMAS mitigation layer comprises barium strontium aluminosilicate (BSAS) and a CMAS mitigation composition consisting of cordierite; and when the CMAS mitigation layer is a separate CMAS mitigation layer , the separate CMAS mitigation layer comprises a CMAS mitigation composition consisting of cordierite. a bond coat layer adjacent the component; an optional silica layer adjacent the bond coat layer; at least one transition layer adjacent the underlying one of the bond coat layer and the optional silica layer; an optional outer layer ; and a CMAS mitigation layer adjacent the underlying one of the transition layer and the optional outer layer, wherein the CMAS mitigation layer is either an integrated CMAS mitigation layer or a separate CMAS mitigation layer, characterized in that , when the CMAS mitigation layer is an integrated CMAS mitigation layer , the integrated CMAS mitigation layer comprises barium strontium aluminosilicate (BSAS) and a CMAS mitigation composition consisting of cordierite; and when the CMAS mitigation layer is a separate CMAS mitigation layer , the separate CMAS mitigation layer comprises a CMAS mitigation composition consisting of cordierite. characterized in that , when the CMAS mitigation layer is an integrated CMAS mitigation layer , the integrated CMAS mitigation layer comprises barium strontium aluminosilicate (BSAS) and a CMAS mitigation composition consisting of cordierite; and when the CMAS mitigation layer is a separate CMAS mitigation layer , the separate CMAS mitigation layer comprises a CMAS mitigation composition consisting of cordierite.
A method for producing a wind turbine , the method comprising the steps of: a) providing (S1) a nacelle structure , b) providing (S2) a module to be mounted to the nacelle structure in a hanging position , and c) moving (S3) the module relative to the nacelle structure and at least partially through the nacelle structure at an erection site until the module is in the hanging position on the nacelle structure , characterized in that the module is transported to the erection site inside the nacelle structure in a transporting position which is different from the hanging position . a) providing (S1) a nacelle structure , b) providing (S2) a module to be mounted to the nacelle structure in a hanging position , and c) moving (S3) the module relative to the nacelle structure and at least partially through the nacelle structure at an erection site until the module is in the hanging position on the nacelle structure ,
A radio access network, RAN, node (102 2 ) configured to communicate with a mobile station (104 2 ) and a core network, CN, node , the RAN node comprising: a processor (132 2 ); and, a memory (134 2 ); that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the RAN node is operable to: receive , from the mobile station, a channel request comprising an indication that the requested transmission is of high priority; assign radio resources to the mobile station for transmission of data; receive , from the mobile station, data transmitted as an exception report on the assigned radio resources; and transmit , to the CN node, the data transmitted by the mobile station and an indication that the mobile station transmitted data as an exception report with high priority. a processor (132 2 ); and, a memory (134 2 ); that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the RAN node is operable to: receive , from the mobile station, a channel request comprising an indication that the requested transmission is of high priority; assign radio resources to the mobile station for transmission of data; receive , from the mobile station, data transmitted as an exception report on the assigned radio resources; and transmit , to the CN node, the data transmitted by the mobile station and an indication that the mobile station transmitted data as an exception report with high priority. receive , from the mobile station, a channel request comprising an indication that the requested transmission is of high priority; assign radio resources to the mobile station for transmission of data; receive , from the mobile station, data transmitted as an exception report on the assigned radio resources; and transmit , to the CN node, the data transmitted by the mobile station and an indication that the mobile station transmitted data as an exception report with high priority.
Cartridge cap mountable on a distal end of a cartridge body for use with an extrusion gun, said cap comprising a dispensing outlet extending in a longitudinal direction around a longitudinal axis (A) and a cap body extending radially outward from said outlet , said cap comprises a plurality of rods extending in the longitudinal direction (A) from an inner surface of the cap body , wherein at least one piercing rod of the plurality of rods is adapted to pierce a flexible bag when the flexible bag is pressed against the at least one rod, characterised in, that the at least one piercing rod and at least one blunt rod of the plurality of rods have tips with different sharpness, and are arranged around the longitudinal axis (A). said cap comprises a plurality of rods extending in the longitudinal direction (A) from an inner surface of the cap body , wherein at least one piercing rod of the plurality of rods is adapted to pierce a flexible bag when the flexible bag is pressed against the at least one rod, characterised in, that the at least one piercing rod and at least one blunt rod of the plurality of rods have tips with different sharpness, and are arranged around the longitudinal axis (A).
Thermoelectric device having a channel portion which comprises at least one channel layer made of a topological insulator material, characterized by said channel layer having a top surface with at least one groove , wherein each side surface (12.1) of each groove comprises a conducting zone with a pair of topologically protected one-dimensional electron channels , each channel layer comprising at least one n-region (10.3) configured for electron-like conduction and at least one p-region (10.4) configured for hole-like conduction, which n-regions (10.3) and p-regions (10.4) are alternatingly disposed and extend from a first end (10.1) to a second end (10.2) of the channel layer , each n-region (10.3) comprising at least one n-groove (12.3) running from a first electrode at the first end (10.1) to a second electrode at the second end (10.2) and each p-region (10.4) comprising at least one p-groove (12.5) running from a second electrode to a first electrode , wherein the first and second electrodes are alternatingly disposed to connect the p-grooves (12.5) and n-grooves (12.3) of neighboring regions (10.3, 10.4), whereby all p-grooves (12.5) and n-grooves (12.3) are connected in series.
A combustor nozzle assembly , comprising: a nozzle casing for receiving compressed air from a compressor ; a curved surface at a corner continuing from an inner surface of the nozzle casing that is perpendicular to the direction of the compressed air, the curved surface including a fuel spray hole , and a fuel chamber formed by the curved surface and the nozzle casing to supply fuel into the nozzle casing through the fuel spray hole . a nozzle casing for receiving compressed air from a compressor ; a curved surface at a corner continuing from an inner surface of the nozzle casing that is perpendicular to the direction of the compressed air, the curved surface including a fuel spray hole , and a fuel chamber formed by the curved surface and the nozzle casing to supply fuel into the nozzle casing through the fuel spray hole .
An optical imaging lens , in order from an object side to an image side along an optical axis (Z), comprising: a first optical assembly (C1) having negative refractive power; a second optical assembly (C2) having negative refractive power; a third optical assembly (C3) having positive refractive power; an aperture (ST); a fourth optical assembly (C4) having positive refractive power; a fifth optical assembly (C5) having positive refractive power; wherein one of the first optical assembly (C1), the second optical assembly (C2), the third optical assembly (C3), the fourth optical assembly (C4), and the fifth optical assembly (C5) comprise a compound lens formed by adhering at least two lenses, while the others are single lens, characterzied in that the optical imaging lens satisfies: 0.07>f56/F>0.015 in both visible spectrum and infrared spectrum; F is a focal length of the optical imaging lens , and f56 is a focal length of the fifth optical assembly (C5); a wavelength of the visible spectrum ranges between 400 nm and 650 nm, and a wavelength of the infrared spectrum ranges between 760 nm and 1 mm. a first optical assembly (C1) having negative refractive power; a second optical assembly (C2) having negative refractive power; a third optical assembly (C3) having positive refractive power; an aperture (ST); a fourth optical assembly (C4) having positive refractive power; a fifth optical assembly (C5) having positive refractive power; wherein one of the first optical assembly (C1), the second optical assembly (C2), the third optical assembly (C3), the fourth optical assembly (C4), and the fifth optical assembly (C5) comprise a compound lens formed by adhering at least two lenses, while the others are single lens, characterzied in that the optical imaging lens satisfies: 0.07>f56/F>0.015 in both visible spectrum and infrared spectrum; F is a focal length of the optical imaging lens , and f56 is a focal length of the fifth optical assembly (C5); a wavelength of the visible spectrum ranges between 400 nm and 650 nm, and a wavelength of the infrared spectrum ranges between 760 nm and 1 mm.
High-pressure cleaning system with a high-pressure cleaning appliance which comprises a pump and a motor driving the pump as well as a pump inlet for supplying cleaning liquid to be pressurized and a pump outlet for delivering pressurized cleaning liquid and a control device for controlling the high-pressure cleaning appliance , and with at least one discharge unit adapted to be brought into fluid connection with the pump outlet for discharging the pressurized cleaning liquid, wherein the high-pressure cleaning system comprises a detection unit by means of which the type of discharge unit presently in fluid connection with the pump outlet is detectable and which is connected in a signal-transmitting manner to the control device , at least one conveying parameter of the high-pressure cleaning appliance being automatically adaptable by the control device to the detected type of discharge unit , characterized in that the high-pressure cleaning system comprises a spray gun with a manually actuatable valve which is arranged in a through-channel extending from a gun inlet to a gun outlet , the gun inlet being adapted to be brought via a pressure line into fluid connection with the pump outlet , and the at least one discharge unit being connectable to the gun outlet , and the detection unit being arranged on the spray gun .