mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: logic circuitry configured to receive a Push-to-talk, PTT, talkgroup identification and map the PTT talkgroup identification to an Internet-of-Things , device having a particular address, the logic circuitry also configured to determine a control command based on the loT device; a network interface coupled to the logic circuitry , the network interface configured to output the control command to the particular address in order to operate the loT device. logic circuitry configured to receive a Push-to-talk, PTT, talkgroup identification and map the PTT talkgroup identification to an Internet-of-Things , device having a particular address, the logic circuitry also configured to determine a control command based on the loT device; a network interface coupled to the logic circuitry , the network interface configured to output the control command to the particular address in order to operate the loT device.
An artificial turf comprising: - textured thatch yarn fibers made of a first material; - textured face yarn fibers made of a second material; and - a carrier , wherein a textured fiber is a fiber having a molecular memory of a textured state, wherein the textured state is a curled, crumpled and/or wrinkled state, wherein the molecular memory is a tendency to turn into the textured state if the fiber is allowed to do so, wherein the length of a fiber in texturized state is shorter than in the non-texturized state of the fiber; wherein the face yarn fibers are integrated in the carrier such that the thatch yarn fibers protrude from the carrier by a shared thatch yarn fiber height (L2), wherein the thatch yarn fibers are integrated in the carrier such that the face yarn fibers protrude from the carrier by a shared face yarn fiber height (L3), the face yarn fiber height being larger than the thatch yarn fiber height, wherein the first material is adapted to contract stronger than the second material upon being exposed to a contraction inducing condition. - textured thatch yarn fibers made of a first material; - textured face yarn fibers made of a second material; and - a carrier , wherein a textured fiber is a fiber having a molecular memory of a textured state, wherein the textured state is a curled, crumpled and/or wrinkled state, wherein the molecular memory is a tendency to turn into the textured state if the fiber is allowed to do so, wherein the length of a fiber in texturized state is shorter than in the non-texturized state of the fiber; wherein the face yarn fibers are integrated in the carrier such that the thatch yarn fibers protrude from the carrier by a shared thatch yarn fiber height (L2), wherein the thatch yarn fibers are integrated in the carrier such that the face yarn fibers protrude from the carrier by a shared face yarn fiber height (L3), the face yarn fiber height being larger than the thatch yarn fiber height, wherein the first material is adapted to contract stronger than the second material upon being exposed to a contraction inducing condition.
A support assembly for a self-contained breathing apparatus, the support assembly comprising: a. a back frame configured to be positioned adjacent a user's back when worn by the user, the back frame having an upper region and a lower region ; b. a waist pad removably attached to the lower region of the back frame; c. a first elongate securing member arranged to removably secure the back frame to the waist pad; and characterized in that it comprises: d a second elongate flexible securing member configured to removably secure the back frame to the waist pad; wherein the second elongate flexible securing member is arranged generally parallel to the back frame longitudinal axis and wherein the first elongate securing member is arranged generally perpendicularly to the back frame longitudinal axis, and wherein the first elongate securing member and the second elongate flexible securing member are configured to allow the waist pad to move within a predetermined range of motion with respect to the back frame. a. a back frame configured to be positioned adjacent a user's back when worn by the user, the back frame having an upper region and a lower region ; b. a waist pad removably attached to the lower region of the back frame; c. a first elongate securing member arranged to removably secure the back frame to the waist pad; and characterized in that it comprises: d a second elongate flexible securing member configured to removably secure the back frame to the waist pad; wherein the second elongate flexible securing member is arranged generally parallel to the back frame longitudinal axis and wherein the first elongate securing member is arranged generally perpendicularly to the back frame longitudinal axis, and wherein the first elongate securing member and the second elongate flexible securing member are configured to allow the waist pad to move within a predetermined range of motion with respect to the back frame. d a second elongate flexible securing member configured to removably secure the back frame to the waist pad; wherein the second elongate flexible securing member is arranged generally parallel to the back frame longitudinal axis and wherein the first elongate securing member is arranged generally perpendicularly to the back frame longitudinal axis, and wherein the first elongate securing member and the second elongate flexible securing member are configured to allow the waist pad to move within a predetermined range of motion with respect to the back frame.
Method for generating from a multi-channel 2D audio input signal ( x ( k ) ( t )) a 3D sound representation which includes a HOA representation y HOA k t and channel object signals y ch k t , wherein said 3D sound representation is suited for a presentation with loudspeakers after rendering said HOA representation and combination with said channel object signals, said method including: - generating (21, 221, 23; 41, 421, 43) each of said channel object signals y ch k t by selecting and scaling one channel signal of said multi-channel 2D audio input signal ( x ( k ) ( t )); - generating additional signals x spat k t for placing them in the 3D space by scaling (21, 222; 41, 422; the remaining non-selected channels from said multi-channel 2D audio input signal and/or by decorrelating (24, 25; 44, 45, 451; x ̃ decorr k t ) a scaled version of a mix of channels from said multi-channel 2D audio input signal, wherein spatial positions (29; 49) for said additional signals are predetermined; - converting (27; 47) said additional signals x spat k t to said HOA representation y HOA k t using the corresponding spatial positions. - generating (21, 221, 23; 41, 421, 43) each of said channel object signals y ch k t by selecting and scaling one channel signal of said multi-channel 2D audio input signal ( x ( k ) ( t )); - generating additional signals x spat k t for placing them in the 3D space by scaling (21, 222; 41, 422; the remaining non-selected channels from said multi-channel 2D audio input signal and/or by decorrelating (24, 25; 44, 45, 451; x ̃ decorr k t ) a scaled version of a mix of channels from said multi-channel 2D audio input signal, wherein spatial positions (29; 49) for said additional signals are predetermined; - converting (27; 47) said additional signals x spat k t to said HOA representation y HOA k t using the corresponding spatial positions.
A track shoe cover , comprising: a roller engaging surface ; and a shoe engaging surface , comprising: a shoe engaging recess defined on at least two opposite sides by a set of side walls , and a respective attachment groove included in the set of side walls , wherein the respective attachment groove is configured to facilitate mechanical connection of the track shoe cover and a crawler shoe . a roller engaging surface ; and a shoe engaging surface , comprising: a shoe engaging recess defined on at least two opposite sides by a set of side walls , and a respective attachment groove included in the set of side walls , wherein the respective attachment groove is configured to facilitate mechanical connection of the track shoe cover and a crawler shoe . a shoe engaging recess defined on at least two opposite sides by a set of side walls , and a respective attachment groove included in the set of side walls , wherein the respective attachment groove is configured to facilitate mechanical connection of the track shoe cover and a crawler shoe .
A bone anchoring system, comprising: a sheath having a first sidewall with proximal and distal ends and a second sidewall with proximal and distal ends, the distal ends of the first and second sidewalls being coupled to one another by a hinge pin such that the first and second sidewalls pivot relative to one another about the hinge pin ; an elongate shaft having a distal end with a distally-extending central protrusion that extends into the sheath between the first and second sidewalls , and the distal end having at least first and second distally-extending side protrusions positioned on opposite sides of the central protrusion and extending along opposite outer sides of the first and second sidewalls such that the first and second distally-extending side protrusions prevent rotation of the first and second sidewalls about the hinge pin . a sheath having a first sidewall with proximal and distal ends and a second sidewall with proximal and distal ends, the distal ends of the first and second sidewalls being coupled to one another by a hinge pin such that the first and second sidewalls pivot relative to one another about the hinge pin ; an elongate shaft having a distal end with a distally-extending central protrusion that extends into the sheath between the first and second sidewalls , and the distal end having at least first and second distally-extending side protrusions positioned on opposite sides of the central protrusion and extending along opposite outer sides of the first and second sidewalls such that the first and second distally-extending side protrusions prevent rotation of the first and second sidewalls about the hinge pin .
Train protection method - with which at least one track-side data transmission device , which forms a cut-off point (SP k ) for a track section (S k ), is controlled by a railway signal and - with which radio equipment mounted in particular on the railway signal and assigned to the railway signal sends a radio data signal (F 112 ) to a rail vehicle (F) approaching the railway signal , wherein - a correction of a previously known wheel diameter or wheel circumference value (d) of the rail vehicle (F) is carried out as a function of a number of wheel impulses or wheel revolutions (n k ) determined when the rail vehicle (F) traverses the one track section (S k ) and as a function of a reference value (RW k ) for the length of the one track section (S k ), - wherein the one radio data signal (F 112 ) specifies the one reference value (RW k ) or wherein the one radio data signal (F 112 ) specifies a correction value (KW k ), and by applying the same to a track target distance (ZE k ) the one reference value (RW k ) is determined. - with which at least one track-side data transmission device , which forms a cut-off point (SP k ) for a track section (S k ), is controlled by a railway signal and - with which radio equipment mounted in particular on the railway signal and assigned to the railway signal sends a radio data signal (F 112 ) to a rail vehicle (F) approaching the railway signal , - a correction of a previously known wheel diameter or wheel circumference value (d) of the rail vehicle (F) is carried out as a function of a number of wheel impulses or wheel revolutions (n k ) determined when the rail vehicle (F) traverses the one track section (S k ) and as a function of a reference value (RW k ) for the length of the one track section (S k ), - wherein the one radio data signal (F 112 ) specifies the one reference value (RW k ) or wherein the one radio data signal (F 112 ) specifies a correction value (KW k ), and by applying the same to a track target distance (ZE k ) the one reference value (RW k ) is determined.
A hydrogen-fuelled aircraft power system comprising: a hydrogen fuel supply system configured to provide a flow of gaseous hydrogen fuel; a hydrogen fuel cell having an anode inlet connected to receive a first portion of the flow of gaseous hydrogen fuel from the hydrogen fuel supply system , a cathode air inlet , a cathode exhaust and a cooling flow path ; a gas turbine engine having a compressor , a combustor connected to receive a second portion of the flow of gaseous hydrogen fuel from the hydrogen fuel supply system , and a turbine ; a first heat exchanger having first and second fluid flow paths, the first fluid flow path of the first heat exchanger being between the hydrogen fuel supply system and the fuel cell anode inlet , the fuel cell cooling flow path passing through the second fluid flow path of the first heat exchanger ; and a second heat exchanger having first and second fluid flow paths , the first fluid flow path of the second heat exchanger connected between a compressor bleed line and a cathode air inlet line connected to the fuel cell cathode air inlet , a cathode exhaust line from the fuel cell cathode exhaust passing through the second fluid flow path of the second heat exchanger towards an exhaust . a hydrogen fuel supply system configured to provide a flow of gaseous hydrogen fuel; a hydrogen fuel cell having an anode inlet connected to receive a first portion of the flow of gaseous hydrogen fuel from the hydrogen fuel supply system , a cathode air inlet , a cathode exhaust and a cooling flow path ; a gas turbine engine having a compressor , a combustor connected to receive a second portion of the flow of gaseous hydrogen fuel from the hydrogen fuel supply system , and a turbine ; a first heat exchanger having first and second fluid flow paths, the first fluid flow path of the first heat exchanger being between the hydrogen fuel supply system and the fuel cell anode inlet , the fuel cell cooling flow path passing through the second fluid flow path of the first heat exchanger ; and a second heat exchanger having first and second fluid flow paths , the first fluid flow path of the second heat exchanger connected between a compressor bleed line and a cathode air inlet line connected to the fuel cell cathode air inlet , a cathode exhaust line from the fuel cell cathode exhaust passing through the second fluid flow path of the second heat exchanger towards an exhaust .
A process for the preparation of pyrvinium pamoate salt of formula (I), which comprises reacting pyrvinium methyl sulphate salt of formula (II), with disodium pamoate of formula (III), optionally, in the presence of a base.
A data management system comprising: a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from one or more sensors; a data recording unit configured to record the acquired measurement data; a data size reduction unit configured to generate reduced data obtained by reducing an amount of data of the recorded measurement data; a differential generating unit configured to generate differential data indicating a difference between the recorded measurement data and the reduced data for each sensor in time series; a differential recording unit configured to record the differential data for each sensor in time series; and a data transmission unit configured to transmit the reduced data to another data utilization apparatus utilizing data, wherein the data size reduction unit has a low-pass filter for processing the recorded measurement data, and is configured to low-pass filter the recorded measurement data and sample the filtered data with a wide interval to generate the reduced data. a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from one or more sensors; a data recording unit configured to record the acquired measurement data; a data size reduction unit configured to generate reduced data obtained by reducing an amount of data of the recorded measurement data; a differential generating unit configured to generate differential data indicating a difference between the recorded measurement data and the reduced data for each sensor in time series; a differential recording unit configured to record the differential data for each sensor in time series; and a data transmission unit configured to transmit the reduced data to another data utilization apparatus utilizing data, wherein the data size reduction unit has a low-pass filter for processing the recorded measurement data, and is configured to low-pass filter the recorded measurement data and sample the filtered data with a wide interval to generate the reduced data.
A system for analyzing neurophysiological data recorded from a brain of a subject, the system comprising a data processor configured for: receiving neurophysiological data ; identifying activity-related features in the data; parceling the data according to said activity-related features by forming a spatial grid according to locations of measuring devices used to measure said data, associating each identified activity-related feature with a grid element and a time point, and defining a capsule corresponding to said identified activity-related feature as a spatiotemporal activity region encapsulating grid elements nearby said associated grid element and time points nearby said associated time point, wherein said grid elements nearby said associated grid element and said time points nearby said associated time point comprise all grid elements and time points at which an amplitude level of said activity-related feature is within a predetermined threshold range, thereby defining a plurality of capsules, each representing a spatiotemporal activity region in the brain; comparing at least some of said defined capsules to at least one reference capsule; and estimating a brain function of the subject based on said comparison. receiving neurophysiological data ; identifying activity-related features in the data; parceling the data according to said activity-related features by forming a spatial grid according to locations of measuring devices used to measure said data, associating each identified activity-related feature with a grid element and a time point, and defining a capsule corresponding to said identified activity-related feature as a spatiotemporal activity region encapsulating grid elements nearby said associated grid element and time points nearby said associated time point, wherein said grid elements nearby said associated grid element and said time points nearby said associated time point comprise all grid elements and time points at which an amplitude level of said activity-related feature is within a predetermined threshold range, thereby defining a plurality of capsules, each representing a spatiotemporal activity region in the brain; comparing at least some of said defined capsules to at least one reference capsule; and estimating a brain function of the subject based on said comparison.
An air conditioner comprising a compressor , an outdoor heat exchanger , an expansion device , and an indoor heat exchanger , wherein the air conditioner comprises: a compressor suction channel connecting a heating-operation outlet of the outdoor heat exchanger and an inlet of the compressor ; and a bypass pipe connecting a separating device and the compressor suction channel to bypass the vapor refrigerant component separated by the separating device in the heating operation to the compressor suction channel , characterized in that the outdoor heat exchanger further comprises: a plurality of unit channels into which a refrigerant channel is partitioned; and a separating device installed in each of the plurality of unit channels and configured to separate a liquid refrigerant component and a vapor refrigerant component in each of the plurality of unit channels in a heating operation. a compressor suction channel connecting a heating-operation outlet of the outdoor heat exchanger and an inlet of the compressor ; and a bypass pipe connecting a separating device and the compressor suction channel to bypass the vapor refrigerant component separated by the separating device in the heating operation to the compressor suction channel , a plurality of unit channels into which a refrigerant channel is partitioned; and a separating device installed in each of the plurality of unit channels and configured to separate a liquid refrigerant component and a vapor refrigerant component in each of the plurality of unit channels in a heating operation.
A base station apparatus, eNB, belonging to an LTE system in a wireless communication system that includes a communication terminal apparatus capable of performing, under the control of the eNB, communication in connection with an access point, AP, on a wireless LAN, WLAN, side, which is referred to as LTE-WLAN Aggregation, LWA, characterised by comprising: reception means for receiving, from the communication terminal apparatus, information indicating that the WLAN communication function is disabled and information indicating that the terminal apparatus establishes connection with a surrounding AP by the WLAN regardless of control by the eNB; determination means for determining, based on the information, whether the communication terminal apparatus is in the state in which the communication terminal apparatus is capable of performing the LWA; and means for not transmitting to the communication terminal apparatus a WLAN AP search instruction if it is determined that the communication terminal apparatus does not disable the WLAN communication function but is connected to a surrounding AP incompatible with the LWA regardless of the control by the eNB, and for transmitting to the communication terminal apparatus a WLAN AP search instruction if it is determined that the communication terminal apparatus does not disable the WLAN communication function and is connected to an LWA-compatible AP regardless of the control by the eNB. reception means for receiving, from the communication terminal apparatus, information indicating that the WLAN communication function is disabled and information indicating that the terminal apparatus establishes connection with a surrounding AP by the WLAN regardless of control by the eNB; determination means for determining, based on the information, whether the communication terminal apparatus is in the state in which the communication terminal apparatus is capable of performing the LWA; and means for not transmitting to the communication terminal apparatus a WLAN AP search instruction if it is determined that the communication terminal apparatus does not disable the WLAN communication function but is connected to a surrounding AP incompatible with the LWA regardless of the control by the eNB, and for transmitting to the communication terminal apparatus a WLAN AP search instruction if it is determined that the communication terminal apparatus does not disable the WLAN communication function and is connected to an LWA-compatible AP regardless of the control by the eNB.
Medical inflatable device for use in a biological body in medicine, the device comprising: a balloon having segments (124a, b) that are angularly adjacent to each other and parallel with a longitudinal axis of the device; characterized by a hollow shaft , the segments (124a, b) being inflatable by a tube attached to the hollow shaft . a balloon having segments (124a, b) that are angularly adjacent to each other and parallel with a longitudinal axis of the device; characterized by a hollow shaft , the segments (124a, b) being inflatable by a tube attached to the hollow shaft .