mhurhangee/patent-ind-claim-en huggingface dataset:
A processor for wireless communication, comprising: at least one controller coupled with at least one memory and configured to cause the processor to: output sidelink, "SL", data to a set of receiver vehicle-to-everything, V2X, UEs ; listen for SL feedback from the set of receiver V2X UEs, the SL feedback indicating whether a receiver V2X UE successfully decoded the SL data; aggregate hybrid automatic repeat request, "HARQ", feedback received as SL feedback from the receiver V2X UEs, wherein aggregating HARQ feedback comprises generating a positive acknowledgement if all UEs in the set of receiver V2X UEs transmit positive acknowledgement and otherwise generating a negative acknowledgement; output an aggregated feedback message to a radio access network, "RAN", node, the aggregated feedback message containing the aggregated HARQ feedback; and characterised by determining a transmission mode for retransmission of the SL data, wherein the transmission mode is selected from: groupcast transmission and M-unicast transmissions, wherein M is an integer less than the number of receiver V2X UEs, wherein the aggregated feedback message requests the determined transmission mode. output sidelink, "SL", data to a set of receiver vehicle-to-everything, V2X, UEs ; listen for SL feedback from the set of receiver V2X UEs, the SL feedback indicating whether a receiver V2X UE successfully decoded the SL data; aggregate hybrid automatic repeat request, "HARQ", feedback received as SL feedback from the receiver V2X UEs, wherein aggregating HARQ feedback comprises generating a positive acknowledgement if all UEs in the set of receiver V2X UEs transmit positive acknowledgement and otherwise generating a negative acknowledgement; output an aggregated feedback message to a radio access network, "RAN", node, the aggregated feedback message containing the aggregated HARQ feedback; and characterised by determining a transmission mode for retransmission of the SL data, wherein the transmission mode is selected from: groupcast transmission and M-unicast transmissions, wherein M is an integer less than the number of receiver V2X UEs, wherein the aggregated feedback message requests the determined transmission mode.
A rotor support configured to rotatably mount a rotor shaft in a vacuum pump, said rotor support comprising: a rolling bearing for rotatably supporting said shaft ; an insert and at least one resilient damping member , said insert and said at least one resilient damping member surrounding said rolling bearing; wherein said insert comprises inner and outer annular portions connected by a plurality of flexible members , said plurality of flexible members being configured to flex in a radial plane and resist movement in an axial plane, thereby absorbing radial movement of said shaft ; and said at least one resilient damping member is formed of an elastomeric material configured to flex in both a radial and axial direction; characterised in that said at least one resilient damping member is configured to support said insert and is arranged in series with said insert . a rolling bearing for rotatably supporting said shaft ; an insert and at least one resilient damping member , said insert and said at least one resilient damping member surrounding said rolling bearing; wherein said insert comprises inner and outer annular portions connected by a plurality of flexible members , said plurality of flexible members being configured to flex in a radial plane and resist movement in an axial plane, thereby absorbing radial movement of said shaft ; and said at least one resilient damping member is formed of an elastomeric material configured to flex in both a radial and axial direction; characterised in that said at least one resilient damping member is configured to support said insert and is arranged in series with said insert .
A process for producing collagen particles, wherein there are provided: - an electrochemical cell with three electrodes, comprising - an electrolytic bath - a potentiostat/galvanostat - said three electrodes, of which a working electrode , a reference electrode , and an auxiliary electrode , at least partially immersed in the electrolytic bath , connected together by the potentiostat/galvanostat , - a membrane at least partially covered by an electrically conductive metal layer and having a plurality of pores , wherein the membrane is removably constrained to a surface of the working electrode , and is immersed in the electrolytic bath , wherein the electrolytic bath contains tropocollagen at a concentration from 1 to 100 mM, in a buffered aqueous saline solution, the process comprising a step of a) applying a controlled electrochemical potential (E/V) from -0.05 to -3.0 V by means of the potentiostat/galvanostat ; whereby at least one collagen particle is formed within each pore of the membrane . - an electrochemical cell with three electrodes, comprising - an electrolytic bath - a potentiostat/galvanostat - said three electrodes, of which a working electrode , a reference electrode , and an auxiliary electrode , at least partially immersed in the electrolytic bath , connected together by the potentiostat/galvanostat , - a membrane at least partially covered by an electrically conductive metal layer and having a plurality of pores , - an electrolytic bath - a potentiostat/galvanostat - said three electrodes, of which a working electrode , a reference electrode , and an auxiliary electrode , at least partially immersed in the electrolytic bath , connected together by the potentiostat/galvanostat , - a membrane at least partially covered by an electrically conductive metal layer and having a plurality of pores , a) applying a controlled electrochemical potential (E/V) from -0.05 to -3.0 V by means of the potentiostat/galvanostat ; whereby at least one collagen particle is formed within each pore of the membrane .
A method of mass spectrometry comprising: determining the intensity of an analyte by determining the intensity of first characteristic ions when the intensity of said first characteristic ions is within a first range; and determining the intensity of said analyte by determining the intensity of second different characteristic ions when the intensity of said first characteristic ions is outside of said first range, determining one or more isotope ratios of said analyte using said first characteristic ions when the intensity of said first characteristic ions is within said first range and determining one or more isotope ratios of said analyte using said second different characteristic ions when the intensity of said first characteristic ions is outside of said first range in order to confirm the identity of said analyte and/or to identify said analyte, wherein said first characteristic ions comprise fragment, product or adduct ions derived from said analyte, and/or one or more first isotopes of said analyte, and wherein said second characteristic ions comprise different fragment, product or adduct ions derived from said analyte, and/or one or more second isotopes of said analyte. determining the intensity of an analyte by determining the intensity of first characteristic ions when the intensity of said first characteristic ions is within a first range; and determining the intensity of said analyte by determining the intensity of second different characteristic ions when the intensity of said first characteristic ions is outside of said first range, determining one or more isotope ratios of said analyte using said first characteristic ions when the intensity of said first characteristic ions is within said first range and determining one or more isotope ratios of said analyte using said second different characteristic ions when the intensity of said first characteristic ions is outside of said first range in order to confirm the identity of said analyte and/or to identify said analyte, wherein said first characteristic ions comprise fragment, product or adduct ions derived from said analyte, and/or one or more first isotopes of said analyte, and wherein said second characteristic ions comprise different fragment, product or adduct ions derived from said analyte, and/or one or more second isotopes of said analyte.
A gas turbine airplane engine comprising an electrical generator driven by the gas turbine airplane engine for supplying electrical energy to an electricity distribution network of the airplane and an electricity power supply circuit for airplane engine equipment, the electricity power supply circuit comprising a first bus for distributing a DC voltage or an AC voltage to first electrical equipment of the engine and a second bus for distributing a DC voltage at higher voltage to other electrical equipment of the engine, the electricity power supply circuit for airplane engine equipment being characterized in that it further comprises a third AC bus connected on the one hand to the first and second buses via at least one voltage converter or transformer and on the other hand to a power supply line delivering an AC voltage and intended to be connected to the electricity distribution network of the airplane.
Shutter-type smoke extraction damper , comprising: - a frame for installing the damper in a smoke extraction duct; - at least one leaf which is mounted in the frame and is pivotable about a pivot axis (A) between a closed position and an open position; - means of connection between the leaf and the frame ; - a resetting motor which is provided on the leaf in order to drive the means of connection so as to move the leaf from its open position into its closed position; characterized in that said means of connection comprise: - first means of connection which are in part situated between the motor and a first edge (B1) of the leaf , and in part between this first edge (B1) and the frame , the first edge extending perpendicularly to the pivot axis (A); and - second means of connection which are in part situated between the motor and a second edge (B2) of the leaf , opposed to the first edge (B1), and in part between this second edge (B2) and the frame . - a frame for installing the damper in a smoke extraction duct; - at least one leaf which is mounted in the frame and is pivotable about a pivot axis (A) between a closed position and an open position; - means of connection between the leaf and the frame ; - a resetting motor which is provided on the leaf in order to drive the means of connection so as to move the leaf from its open position into its closed position; - first means of connection which are in part situated between the motor and a first edge (B1) of the leaf , and in part between this first edge (B1) and the frame , the first edge extending perpendicularly to the pivot axis (A); and - second means of connection which are in part situated between the motor and a second edge (B2) of the leaf , opposed to the first edge (B1), and in part between this second edge (B2) and the frame .
An anti-vibration device comprising: a cylinder body coupled to one of a vibration source or a vibration receiver; a support body coupled to the other of the vibration source or the vibration receiver; an elastic body attaching the support body to the cylinder body such that the support body is capable of moving relative to the cylinder body ; a first liquid chamber housing a liquid and provided between the elastic body and a pathway member that is formed within the cylinder body ; a second liquid chamber provided between the pathway member and a diaphragm that partitions an interior of the cylinder body , a liquid flowing between the first liquid chamber and the second liquid chamber through a pathway that is formed by the pathway member ; a first gas chamber provided on an opposite side of the diaphragm from the second liquid chamber ; a second gas chamber isolated from the first gas chamber ; and a switching section switching between a state of communication and a state of non-communication between the first gas chamber and the second gas chamber , wherein the diaphragm does not configure a wall of the second gas chamber , wherein the second gas chamber is configured so that when the pressure inside the second liquid chamber changes so as to displace the diaphragm , the second gas chamber does not influence the pressure change inside the second liquid chamber so long as the second gas chamber and the first gas chamber are in a state of non-communication, and characterized in that , the second gas chamber is only communicable with the first gas chamber . a cylinder body coupled to one of a vibration source or a vibration receiver; a support body coupled to the other of the vibration source or the vibration receiver; an elastic body attaching the support body to the cylinder body such that the support body is capable of moving relative to the cylinder body ; a first liquid chamber housing a liquid and provided between the elastic body and a pathway member that is formed within the cylinder body ; a second liquid chamber provided between the pathway member and a diaphragm that partitions an interior of the cylinder body , a liquid flowing between the first liquid chamber and the second liquid chamber through a pathway that is formed by the pathway member ; a first gas chamber provided on an opposite side of the diaphragm from the second liquid chamber ; a second gas chamber isolated from the first gas chamber ; and a switching section switching between a state of communication and a state of non-communication between the first gas chamber and the second gas chamber , wherein the diaphragm does not configure a wall of the second gas chamber , wherein the second gas chamber is configured so that when the pressure inside the second liquid chamber changes so as to displace the diaphragm , the second gas chamber does not influence the pressure change inside the second liquid chamber so long as the second gas chamber and the first gas chamber are in a state of non-communication, and characterized in that , the second gas chamber is only communicable with the first gas chamber .
A system for determining an estimate of a transfer function of a measurement apparatus and an estimate of uncertainty in the accuracy of the estimate of the transfer function, wherein the measurement apparatus comprises an input for receiving a measurand and an output to output an estimated value of the measurand, the transfer function apparatus comprising: a perturbation unit for coupling to the input of the measurement apparatus, wherein the perturbation unit is configured to apply a known perturbation signal to the input of the measurement apparatus so as to modify the measurand using the known perturbation signal; and a transfer function measuring apparatus for coupling to the output of the measurement apparatus, wherein the transfer function measuring apparatus is configured to: determine, based on a response to the known perturbation signal at the output of the measurement apparatus, the estimate of the transfer function of the measurement apparatus; and determine the estimate of uncertainty in the accuracy of the estimate of the transfer function based on a variation in a series of estimates of the transfer function, wherein the series of estimates of the transfer function are determined based on responses to the known perturbation signal at the output of the measurement apparatus at different times. a perturbation unit for coupling to the input of the measurement apparatus, wherein the perturbation unit is configured to apply a known perturbation signal to the input of the measurement apparatus so as to modify the measurand using the known perturbation signal; and a transfer function measuring apparatus for coupling to the output of the measurement apparatus, wherein the transfer function measuring apparatus is configured to: determine, based on a response to the known perturbation signal at the output of the measurement apparatus, the estimate of the transfer function of the measurement apparatus; and determine the estimate of uncertainty in the accuracy of the estimate of the transfer function based on a variation in a series of estimates of the transfer function, wherein the series of estimates of the transfer function are determined based on responses to the known perturbation signal at the output of the measurement apparatus at different times. determine, based on a response to the known perturbation signal at the output of the measurement apparatus, the estimate of the transfer function of the measurement apparatus; and determine the estimate of uncertainty in the accuracy of the estimate of the transfer function based on a variation in a series of estimates of the transfer function, wherein the series of estimates of the transfer function are determined based on responses to the known perturbation signal at the output of the measurement apparatus at different times.
A reflector sight for a firearm, the sight comprising: a base ; a housing arranged on the base, together defining an inner chamber , the housing comprising a roof , two or more sides , a front window and a rear window ; and a light source ; whereby the base comprises a bridge defining a tunnel therethrough; characterised in that the sight is a closed sight, wherein the inner chamber is sealed by a combination of the base, the roof of the housing, the sides of the housing and the front and rear windows of the housing, together with the bridge; and wherein the light source is arranged with respect to the base to emit light through the tunnel and into the chamber. a base ; a housing arranged on the base, together defining an inner chamber , the housing comprising a roof , two or more sides , a front window and a rear window ; and a light source ; whereby the base comprises a bridge defining a tunnel therethrough; characterised in that the sight is a closed sight, wherein the inner chamber is sealed by a combination of the base, the roof of the housing, the sides of the housing and the front and rear windows of the housing, together with the bridge; and wherein the light source is arranged with respect to the base to emit light through the tunnel and into the chamber.
A tool tracker comprising hardware, software, firmware and/or circuitry for executing a tracking technique to track a position of an interventional tool comprising at least one ultrasound transducer disposed on a distal tip of the interventional tool with an ultrasound probe , relative to an acoustic image plane corresponding to an ultrasound image of an anatomical region generated by the ultrasound probe , based on a time of flight and an amplitude of ultrasound signals corresponding to each of a plurality of beams communicated from the ultrasound probe to the at least one ultrasound transducer , wherein the tool tracker is configured to execute an algorithm that determines a projection of a 3D position of the at least one ultrasound transducer including an X-azimuth, a Z-depth and a Y-elevation of the at least one ultrasound transducer onto a 2D position in the acoustic image plane by performing the method steps of: determining the Z-depth coordinate by measuring the time of flight of the ultrasound signals from the ultrasound probe to the at least one ultrasound transducer ; determining the X-azimuth position by searching for a maximum received amplitude across beams from the ultrasound probe received at the at least one ultrasound transducer ; estimating the Y elevation comprising the distance of the at least one ultrasound transducer relative to the acoustic image plane by recording the received amplitude of the ultrasound signals at the at least one ultrasound transducer and comparing it to a past history of said ultrasound signals, wherein an increasing amplitude means that the at least one ultrasound transducer is approaching the acoustic image plane and a decreasing amplitude means that the at least one ultrasound transducer is going further away from the acoustic image plane . determining the Z-depth coordinate by measuring the time of flight of the ultrasound signals from the ultrasound probe to the at least one ultrasound transducer ; determining the X-azimuth position by searching for a maximum received amplitude across beams from the ultrasound probe received at the at least one ultrasound transducer ; estimating the Y elevation comprising the distance of the at least one ultrasound transducer relative to the acoustic image plane by recording the received amplitude of the ultrasound signals at the at least one ultrasound transducer and comparing it to a past history of said ultrasound signals, wherein an increasing amplitude means that the at least one ultrasound transducer is approaching the acoustic image plane and a decreasing amplitude means that the at least one ultrasound transducer is going further away from the acoustic image plane .
Device for supporting and connecting electronic circuit boards comprising: - an L-shaped electronic circuit board support , which has a first wing and a second wing which is approximately at right angles to the first wing and which comprises a solid plate which has at least one aperture , - connectors positioned on the first wing of the electronic circuit board support , at least one for each electronic circuit board , each being configured to receive a connection of an electronic circuit board , - at least one electronic circuit board guide positioned and fixed on the second wing of the electronic circuit board support , comprising several grooves , one for each electronic circuit board , each groove being configured to guide an electronic circuit board in a direction of insertion towards the connector which is associated with it, - a system for distributing a first air flow originating from below the electronic circuit board support and passing through the second wing of the electronic circuit board support and the electronic circuit board guide to regulate the temperature of the electronic circuit boards , the electronic circuit board guide being made of a metallic material and comprising walls for linking the grooves which are solid and cover the aperture or apertures of the electronic circuit board support and the distribution system comprising a plurality of slits which pass through at least one wall of the electronic circuit board guide , which are separated by fins and grouped together so as to form at least one heat exchange zone , each of which has a section smaller than that of each aperture of the electronic circuit board support and which are arranged and dimensioned to distribute the first air flow as at least one second air flow above the electronic circuit board guide and in contact with the electronic circuit boards . - an L-shaped electronic circuit board support , which has a first wing and a second wing which is approximately at right angles to the first wing and which comprises a solid plate which has at least one aperture , - connectors positioned on the first wing of the electronic circuit board support , at least one for each electronic circuit board , each being configured to receive a connection of an electronic circuit board , - at least one electronic circuit board guide positioned and fixed on the second wing of the electronic circuit board support , comprising several grooves , one for each electronic circuit board , each groove being configured to guide an electronic circuit board in a direction of insertion towards the connector which is associated with it, - a system for distributing a first air flow originating from below the electronic circuit board support and passing through the second wing of the electronic circuit board support and the electronic circuit board guide to regulate the temperature of the electronic circuit boards ,