mhurhangee/patent-ind-claim-en huggingface dataset:
Image registration system for registering a live stream of ultrasound images of a beamforming ultrasound probe with an X-ray image based on i) ultrasound signals transmitted between the beamforming ultrasound probe and an ultrasound transducer that is disposed on a medical device represented in the X-ray image , the ultrasound transducer having a predetermined spatial relationship with the medical device , and based on ii) a position of the medical device derived from the X-ray image ; the image registration system comprising at least one processor configured to: receive the live stream of ultrasound images ; receive the X-ray image that includes the representation of the medical device ; identify, from the received X-ray image , a position of the medical device ; receive transmitted and detected signals corresponding to the ultrasound signals transmitted between the beamforming ultrasound probe and the ultrasound transducer disposed on the medical device ; determine, based on the received signals, a location of the ultrasound transducer respective the beamforming ultrasound probe by i) selecting an ultrasound beam of the beamforming ultrasound probe corresponding to the maximum detected signal and ii) calculating, for the selected ultrasound beam, a range between the beamforming ultrasound probe and the ultrasound transducer based on a time of flight of said transmitted ultrasound signals; and to register each ultrasound image from the live stream with the X-ray image based on the identified position of the medical device , wherein said registration includes determining an offset from said identified position that is based on i) the predetermined spatial relationship of the ultrasound transducer respective the medical device and ii) the determined location of the ultrasound transducer respective the beamforming ultrasound probe . receive the live stream of ultrasound images ; receive the X-ray image that includes the representation of the medical device ; identify, from the received X-ray image , a position of the medical device ; receive transmitted and detected signals corresponding to the ultrasound signals transmitted between the beamforming ultrasound probe and the ultrasound transducer disposed on the medical device ; determine, based on the received signals, a location of the ultrasound transducer respective the beamforming ultrasound probe by i) selecting an ultrasound beam of the beamforming ultrasound probe corresponding to the maximum detected signal and ii) calculating, for the selected ultrasound beam, a range between the beamforming ultrasound probe and the ultrasound transducer based on a time of flight of said transmitted ultrasound signals; and to register each ultrasound image from the live stream with the X-ray image based on the identified position of the medical device , wherein said registration includes determining an offset from said identified position that is based on i) the predetermined spatial relationship of the ultrasound transducer respective the medical device and ii) the determined location of the ultrasound transducer respective the beamforming ultrasound probe .
A subframe configuration method comprising: • configuring, by a network-side device, a target subframe, wherein the target subframe comprises at least one sounding reference signal, SRS, symbol, and the SRS symbol is used to send an SRS signal (step 201); and • sending, by the network-side device, first configuration signaling to a terminal device, wherein the first configuration signaling comprises an SRS configuration of the target subframe (step 202), characterised in that the SRS configuration of the target subframe comprises cell-specific SRS configuration information or user-specific SRS configuration information, the cell-specific SRS configuration information is used to identify the SRS symbol in the target subframe, and the user-specific SRS configuration information is used to identify an SRS resource that is allocated to the terminal device and that is in the SRS symbol in the target subframe, wherein the SRS resource comprises a time domain resource or a code domain resource, the time domain resource comprises one or more SRS symbols, and the code domain resource comprises one or more SRS sequences. • configuring, by a network-side device, a target subframe, wherein the target subframe comprises at least one sounding reference signal, SRS, symbol, and the SRS symbol is used to send an SRS signal (step 201); and • sending, by the network-side device, first configuration signaling to a terminal device, wherein the first configuration signaling comprises an SRS configuration of the target subframe (step 202), characterised in that the SRS configuration of the target subframe comprises cell-specific SRS configuration information or user-specific SRS configuration information, the cell-specific SRS configuration information is used to identify the SRS symbol in the target subframe, and the user-specific SRS configuration information is used to identify an SRS resource that is allocated to the terminal device and that is in the SRS symbol in the target subframe, wherein the SRS resource comprises a time domain resource or a code domain resource, the time domain resource comprises one or more SRS symbols, and the code domain resource comprises one or more SRS sequences.
Process for the maturation of at least one alcoholic liquid , the alcoholic liquid being intended to become an alcoholic beverage or an alcoholic beverage ingredient, the process comprising at least the following steps: - use of an enclosure located in a cellar, and containing at least one container containing the alcoholic liquid , the container being at least partly made of wood or containing wood, and a internal atmosphere comprising oxygen, the enclosure being sealed or semi-sealed, optionally sealing the enclosure , - Maturation of the alcoholic liquid in the container , the maturation consuming a portion of the oxygen present in the internal atmosphere and releasing into the internal atmosphere volatile compounds from the alcoholic liquid , - extraction of the enclosure from part of the internal atmosphere to obtain a gaseous mixture to be treated comprising at least a part of the volatile compounds, separating the gaseous mixture to be treated into at least one residual gaseous mixture depleted of said volatile compounds with respect to the gaseous mixture to be treated, and at least one recovered liquid containing at least a part volatile compounds of the gaseous mixture to be treated, - evacuation of at least a portion, preferably all, of the residual gas mixture outside the enclosure , and - admission of air into the enclosure by forced convection, the recovered liquid being intended to form an alcoholic beverage or an ingredient of a composition, especially an alcoholic beverage or a perfume. - use of an enclosure located in a cellar, and containing at least one container containing the alcoholic liquid , the container being at least partly made of wood or containing wood, and a internal atmosphere comprising oxygen, the enclosure being sealed or semi-sealed, optionally sealing the enclosure , - Maturation of the alcoholic liquid in the container , the maturation consuming a portion of the oxygen present in the internal atmosphere and releasing into the internal atmosphere volatile compounds from the alcoholic liquid , - extraction of the enclosure from part of the internal atmosphere to obtain a gaseous mixture to be treated comprising at least a part of the volatile compounds, separating the gaseous mixture to be treated into at least one residual gaseous mixture depleted of said volatile compounds with respect to the gaseous mixture to be treated, and at least one recovered liquid containing at least a part volatile compounds of the gaseous mixture to be treated, - evacuation of at least a portion, preferably all, of the residual gas mixture outside the enclosure , and - admission of air into the enclosure by forced convection, the recovered liquid being intended to form an alcoholic beverage or an ingredient of a composition, especially an alcoholic beverage or a perfume.
A method comprising: initiating discovery of a network device by: enabling an attached local area network device discovery protocol including enabling of a transmit mode and a receive mode for the network device, and enabling an auxiliary communication protocol that allows devices not directly connected to exchange information on the network device; obtaining a set of network device discovery protocol records from the network device including local neighbors and connectivity information; the method being characterized by : processing topological information about remote neighbors including, correlating and combining connectivity and node information, and marking inventory and age of a set of topology information records using the auxiliary communication protocol and timing cycles to update age of the set of topology information records wherein the method further comprises, when no renewing information is received from a network device on a network during a first period of time, marking the records associated with that network device with a first marker. initiating discovery of a network device by: enabling an attached local area network device discovery protocol including enabling of a transmit mode and a receive mode for the network device, and enabling an auxiliary communication protocol that allows devices not directly connected to exchange information on the network device; enabling an attached local area network device discovery protocol including enabling of a transmit mode and a receive mode for the network device, and enabling an auxiliary communication protocol that allows devices not directly connected to exchange information on the network device; obtaining a set of network device discovery protocol records from the network device including local neighbors and connectivity information; the method being characterized by : processing topological information about remote neighbors including, correlating and combining connectivity and node information, and marking inventory and age of a set of topology information records using the auxiliary communication protocol and timing cycles to update age of the set of topology information records wherein the method further comprises, when no renewing information is received from a network device on a network during a first period of time, marking the records associated with that network device with a first marker. processing topological information about remote neighbors including, correlating and combining connectivity and node information, and marking inventory and age of a set of topology information records using the auxiliary communication protocol and timing cycles to update age of the set of topology information records wherein the method further comprises, when no renewing information is received from a network device on a network during a first period of time, marking the records associated with that network device with a first marker.
A sound radiation apparatus, comprising: a sound radiation unit ; a first member having an opening area which is provided in such a manner as to be superposed above at least a sound radiation port of the sound radiation unit and which is made up of multiple opening portions at a location which is superposed above the sound radiation port ; a second member provided to be superposed on a side of the first member which is opposite to a side thereof which faces the sound radiation unit in such a manner as to surround the opening area of the first member ; and a covering member configured to cover the first member and a side of the second member which is opposite to a side thereof which faces the sound radiation unit and bonded to the second member , characterised in that the second member and the covering member are bonded together at an area (A1) on the second member which excludes a portion surrounding a circumference of the opening area of the first member with a first adhesive (B1) and at an area (A2) on the second member which surrounds the circumference of the opening area of the first member with a second adhesive (B2) having a higher bonding strength than a bonding strength of the first adhesive (B1) . a sound radiation unit ; a first member having an opening area which is provided in such a manner as to be superposed above at least a sound radiation port of the sound radiation unit and which is made up of multiple opening portions at a location which is superposed above the sound radiation port ; a second member provided to be superposed on a side of the first member which is opposite to a side thereof which faces the sound radiation unit in such a manner as to surround the opening area of the first member ; and a covering member configured to cover the first member and a side of the second member which is opposite to a side thereof which faces the sound radiation unit and bonded to the second member , characterised in that the second member and the covering member are bonded together at an area (A1) on the second member which excludes a portion surrounding a circumference of the opening area of the first member with a first adhesive (B1) and at an area (A2) on the second member which surrounds the circumference of the opening area of the first member with a second adhesive (B2) having a higher bonding strength than a bonding strength of the first adhesive (B1) .
A first computing node of a safety relevant system, said node being characterized by comprising : a computing circuit configured to generate a first redundant message; a comparing circuit configured to compare information content of one or more corresponding portions of the first redundant message to a second redundant message, said second redundant message resulting from a computation performed by a second node and propagating over a network during at least one time period, during each of the at least one time period to thereby perform a portion-by-portion comparison of the first and second messages in real time to generate a comparison result; and an indicator circuit configured to indicate, if the result of the comparison is that the first redundant message equals the second redundant message, to another node coupled to the network that the second redundant message on the network is valid. a computing circuit configured to generate a first redundant message; a comparing circuit configured to compare information content of one or more corresponding portions of the first redundant message to a second redundant message, said second redundant message resulting from a computation performed by a second node and propagating over a network during at least one time period, during each of the at least one time period to thereby perform a portion-by-portion comparison of the first and second messages in real time to generate a comparison result; and an indicator circuit configured to indicate, if the result of the comparison is that the first redundant message equals the second redundant message, to another node coupled to the network that the second redundant message on the network is valid.
A method of operating a terminal device , the method comprising: maintaining one or more indices and a mapping between the one or more indices and respective network identifiers, each network identifier identifying a network and/or a network node , the method being characterized by : in communications between the terminal device and a first network in which a particular network and/or a particular network node is to be identified, using the index associated with the particular network and/or the particular network node to identify the particular network and/or the particular network node , wherein the first network is a network operating according to a mobile telecommunications radio access technology, RAT, and the particular network and/or the particular network node are operating according to a wireless local area network RAT; and for a network identifier that has two or more associated indices, determining an action to take with respect to the particular network or the particular network node identified by the network identifier based on which of the two or more indices associated with the network identifier has been received from the first network .
A method of utilizing a probe system to generate a calibrated capacitive height measurement, wherein the probe system includes a probe assembly with a probe support body that supports a capacitive displacement sensor that terminates in a sensing tip that is configured to be positioned in a spaced-apart relation relative to a substrate, and wherein the capacitive displacement sensor is configured to generate an uncalibrated capacitive height measurement that at least partially represents a sensing tip distance of the sensing tip from the substrate, the method comprising: receiving, with a controller, a height calibration structure architecture of a height calibration structure of the substrate, wherein the height calibration structure architecture includes information regarding one or more substrate layers of the height calibration structure; calculating, with the controller and based, at least in part, on the height calibration structure architecture, a layer impedance magnitude of each substrate layer of the one or more substrate layers; calculating, with the controller and based, at least in part, on the calculating the layer impedance magnitude of each substrate layer of the one or more substrate layers, a total layer impedance magnitude of the height calibration structure; measuring, with the capacitive displacement sensor, a measured impedance magnitude; and calculating, with the controller and based, at least in part, on the total layer impedance magnitude and the measured impedance magnitude, the calibrated capacitive height measurement. receiving, with a controller, a height calibration structure architecture of a height calibration structure of the substrate, wherein the height calibration structure architecture includes information regarding one or more substrate layers of the height calibration structure; calculating, with the controller and based, at least in part, on the height calibration structure architecture, a layer impedance magnitude of each substrate layer of the one or more substrate layers; calculating, with the controller and based, at least in part, on the calculating the layer impedance magnitude of each substrate layer of the one or more substrate layers, a total layer impedance magnitude of the height calibration structure; measuring, with the capacitive displacement sensor, a measured impedance magnitude; and calculating, with the controller and based, at least in part, on the total layer impedance magnitude and the measured impedance magnitude, the calibrated capacitive height measurement.
A fluid distributor for a column including at least one cell containing a bed of particles , the fluid distributor comprising: - a floor including at least one injection point ensuring a fluidic connection on either side thereof; - a resistive medium layer attached to the floor and formed with a plurality of resistive medium parts , preferably from two to two hundred, and more preferably from five to fifty, juxtaposed on a face of the floor , the resistive medium being permeable to the fluid; - a spacing device inserted between the floor and the resistive medium layer and maintaining a spacing for fluid circulation between the floor and the resistive medium layer ; the spacing device being composed of washers, grid(s) or grating(s), flat supports or foams. - a floor including at least one injection point ensuring a fluidic connection on either side thereof; - a resistive medium layer attached to the floor and formed with a plurality of resistive medium parts , preferably from two to two hundred, and more preferably from five to fifty, juxtaposed on a face of the floor , the resistive medium being permeable to the fluid; - a spacing device inserted between the floor and the resistive medium layer and maintaining a spacing for fluid circulation between the floor and the resistive medium layer ; the spacing device being composed of washers, grid(s) or grating(s), flat supports or foams.
A printhead control circuit causing a printhead to execute printing, the printhead performing abnormality detection in response to a first signal inputted to a second terminal (TM-SI1/HC) in a state in which a potential of a first terminal (TM-VDR1) is a first potential and a second signal inputted to the second terminal in a state in which the potential of the first terminal is a second potential, the printhead control circuit comprising: a signal circuit configured to output the first and second signals; a first wire (WI-VDR1) electrically coupled to the first terminal; and a second wire (WI-SI1/HC) electrically coupled to the second terminal, wherein at least one of the first and second potentials is higher than potentials of the first and second signals and characterised in that the printhead control circuit is configured such that the signal circuit outputs the first signal to the second wire in a state in which the first wire is being supplied with a first voltage signal at the first potential and outputs the second signal to the second wire after outputting the first signal in a state in which the first wire is being supplied with a second voltage signal at the second potential, which is different from the first potential, to cause the printhead to execute the abnormality detection in response to the first signal, the second signal, the first voltage signal, and the second voltage signal. a signal circuit configured to output the first and second signals; a first wire (WI-VDR1) electrically coupled to the first terminal; and a second wire (WI-SI1/HC) electrically coupled to the second terminal, wherein at least one of the first and second potentials is higher than potentials of the first and second signals and characterised in that the printhead control circuit is configured such that the signal circuit outputs the first signal to the second wire in a state in which the first wire is being supplied with a first voltage signal at the first potential and outputs the second signal to the second wire after outputting the first signal in a state in which the first wire is being supplied with a second voltage signal at the second potential, which is different from the first potential, to cause the printhead to execute the abnormality detection in response to the first signal, the second signal, the first voltage signal, and the second voltage signal.