mhurhangee/ep-ind-claims huggingface dataset:
A method performed in a user terminal, of switching media channel in a unicast-based media session involving a said user terminal receiving a first media content of a first media channel from a media server providing said first media channel and a second media channel, characterized by said user terminal transmitting, to said media server, a content-specific rendering request in the form of a Real Time Streaming Protocol, RTSP, PLAY request for a second media content of said second media channel during said ongoing unicast-based media session, wherein said RTSP PLAY request comprises a unique media content resource identifier associated with said second media content.
An aminosterol or pharmaceutically acceptable salt thereof for use in a method of stimulating or enhancing regeneration of a tissue, wherein said method comprises administering to a subject in need thereof a therapeutically effective amount of the aminosterol or pharmaceutically acceptable salt thereof, wherein the subject in need thereof has an injury of the tissue, and wherein the aminosterol is MSI-1436.
Mounting device for mounting a nozzle arrangement comprising N insertion nozzles, wherein N is at least three, on an air-jet weaving machine comprising a reed with an insertion channel, the mounting device comprising a guide sleeve with a guide recess having a polygonal cross-section with at least N side surfaces, and a front nozzle support for supporting front ends of the N insertion nozzles with a positioning part having a polygonal cross-section with at least N contact surfaces, wherein the positioning part is arranged in the guide recess, characterized in that in a direction transversely to the insertion channel, the positioning part is moveable within the guide recess into N insertion positions each associated with one of the N insertion nozzles, wherein in each insertion position of the N insertion positons a pair of two non-parallel contact surfaces abuts against side surfaces of the guide recess and one of the N insertion nozzles is brought into its use position with respect to the insertion channel.
An insertion tool for inserting a catheter into a body of a patient, comprising: a housing in which at least a portion of the catheter is initially disposed; an at least partially hollow needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire including a proximal end secured to a portion of the insertion tool and a distal end; an advancement assembly for selectively advancing the distal end of the guidewire out from the housing; and a needle safety component for shielding a distal end of the needle, the needle safety component including at least one binding element and at least one friction element that causes the at least one binding element to engage a portion of the needle and prevent relative movement therewith, the at least one friction element including an elastomeric element that is wrapped about at least a portion of the needle and the at least one binding element. a housing in which at least a portion of the catheter is initially disposed; an at least partially hollow needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire including a proximal end secured to a portion of the insertion tool and a distal end; an advancement assembly for selectively advancing the distal end of the guidewire out from the housing; and a needle safety component for shielding a distal end of the needle, the needle safety component including at least one binding element and at least one friction element that causes the at least one binding element to engage a portion of the needle and prevent relative movement therewith, the at least one friction element including an elastomeric element that is wrapped about at least a portion of the needle and the at least one binding element.
A conveyor (20, 46, 56) comprising: a conveyor belt (22, 48, 58) having a plurality of electrically conductive rollers (26, 50, 60) having axes of rotation, wherein the conveyor belt advances in a direction of belt travel; a magnetic-field source (136, 52, 64, 90, 91, 92) generating a primary magnetic field passing through the conveyor belt wherein the rollers are made of aluminum or copper so that the primary magnetic field is inducing a current in the electrically conductive rollers that produces a secondary magnetic field that interacts with the primary magnetic field to produce a force that rotates the electrically conductive rollers. a conveyor belt (22, 48, 58) having a plurality of electrically conductive rollers (26, 50, 60) having axes of rotation, wherein the conveyor belt advances in a direction of belt travel; a magnetic-field source (136, 52, 64, 90, 91, 92) generating a primary magnetic field passing through the conveyor belt wherein the rollers are made of aluminum or copper so that the primary magnetic field is inducing a current in the electrically conductive rollers that produces a secondary magnetic field that interacts with the primary magnetic field to produce a force that rotates the electrically conductive rollers.
A method of operation of a User Equipment device, UE, in a wireless system, comprising: performing (104, 202, 304) uplink Listen-Before-Talk, LBT, on one or more candidate carriers for switched carrier Sounding Reference Signal, SRS, transmission; and performing (106, 206, 308) a switched carrier SRS transmission on at least one candidate carrier of the one or more candidate carriers that is determined to be available as a result of performing (104, 202, 304) the uplink LBT on the one or more candidate carriers, wherein performing the switched carrier SRS transmission on the at least one candidate carrier comprises performing the switched carrier SRS transmission on the at least one candidate carrier in accordance with an SRS transmission multiplexing configuration for a respective group of UEs such that the switched carrier SRS transmission on the at least one candidate carrier is multiplexed with uplink transmissions or SRS transmission of another group of UEs on the same at least one candidate carrier. performing (104, 202, 304) uplink Listen-Before-Talk, LBT, on one or more candidate carriers for switched carrier Sounding Reference Signal, SRS, transmission; and performing (106, 206, 308) a switched carrier SRS transmission on at least one candidate carrier of the one or more candidate carriers that is determined to be available as a result of performing (104, 202, 304) the uplink LBT on the one or more candidate carriers, wherein performing the switched carrier SRS transmission on the at least one candidate carrier comprises performing the switched carrier SRS transmission on the at least one candidate carrier in accordance with an SRS transmission multiplexing configuration for a respective group of UEs such that the switched carrier SRS transmission on the at least one candidate carrier is multiplexed with uplink transmissions or SRS transmission of another group of UEs on the same at least one candidate carrier.
A method of determining one or more cumulative effects of an application of navigated transcranial magnetic stimulation to at least one location in a brain, said method comprising the computer implemented steps of: determining a three dimensional area of a stimulation dose induced by a navigated transcranial stimulation pulse from a coil device, determining a growth component of the stimulation dose in at least one location of the brain caused by one or more transcranial stimulation pulses from the coil device, determining a decay component of the stimulation dose in said at least one location of the brain caused at least by a period of elapsed time, and calculating a cumulative stimulation dose for said at least one location of the brain based on a physical modelling algorithm, the growth component and the decay component at one or more points in time. determining a three dimensional area of a stimulation dose induced by a navigated transcranial stimulation pulse from a coil device, determining a growth component of the stimulation dose in at least one location of the brain caused by one or more transcranial stimulation pulses from the coil device, determining a decay component of the stimulation dose in said at least one location of the brain caused at least by a period of elapsed time, and calculating a cumulative stimulation dose for said at least one location of the brain based on a physical modelling algorithm, the growth component and the decay component at one or more points in time.
A needling installation comprising: - a rotary support extending along a first axis X and on which a fiber texture can be wound so as to form a fiber preform for a body of revolution, the rotary support being mounted on a frame that is movable along a second axis Y perpendicular to the first axis X; - a stripper comprising at least one plate extending at least along the first axis X and including a plurality of perforations, the plate presenting an inside face and an outside face, the outside face being present beside the rotary support; - a needling module having a needling head and a needle board carrying a plurality of needles, the needle board facing the inside face of the plate of the stripper, the needles being in alignment with the perforations present in the plate of the stripper, the needling head having drive means (124, 125) for driving the needle board to impart reciprocating motion to the needles along the second axis Y relative to said plate of the stripper; - contact force application means connected to the stripper; - at least one contact force sensor (142, 152) for providing information representative of the contact force with which the outside face of the plate of the stripper makes contact against the fiber preform; and - control means that are suitable for controlling the contact force application means so as to apply a force to the plate of the stripper that is predetermined as a function of information provided by each contact force sensor (142, 152) and as a function of at least one target value for a predetermined contact force. - a rotary support extending along a first axis X and on which a fiber texture can be wound so as to form a fiber preform for a body of revolution, the rotary support being mounted on a frame that is movable along a second axis Y perpendicular to the first axis X; - a stripper comprising at least one plate extending at least along the first axis X and including a plurality of perforations, the plate presenting an inside face and an outside face, the outside face being present beside the rotary support; - a needling module having a needling head and a needle board carrying a plurality of needles, the needle board facing the inside face of the plate of the stripper, the needles being in alignment with the perforations present in the plate of the stripper, the needling head having drive means (124, 125) for driving the needle board to impart reciprocating motion to the needles along the second axis Y relative to said plate of the stripper; - contact force application means connected to the stripper; - at least one contact force sensor (142, 152) for providing information representative of the contact force with which the outside face of the plate of the stripper makes contact against the fiber preform; and - control means that are suitable for controlling the contact force application means so as to apply a force to the plate of the stripper that is predetermined as a function of information provided by each contact force sensor (142, 152) and as a function of at least one target value for a predetermined contact force.
An assembly comprising: a housing having a liquid trap configured to trap liquid carried in vapor flowing into the housing; and a jet pump (44, 144) having a venturi nozzle (48, 148) and in selective fluid communication with the liquid trap so that liquid flow through the venturi nozzle (48, 148) induces draining of the liquid trap; characterized by a valve configured to prevent draining of the liquid trap by the jet pump (44, 144) when a pressure differential created by liquid flow through the venturi nozzle (48, 148) is below a predetermined level, and to allow fluid communication between the jet pump (44, 144) and the liquid trap to at least partially drain the liquid trap when the pressure differential is above the predetermined level. a housing having a liquid trap configured to trap liquid carried in vapor flowing into the housing; and a jet pump (44, 144) having a venturi nozzle (48, 148) and in selective fluid communication with the liquid trap so that liquid flow through the venturi nozzle (48, 148) induces draining of the liquid trap; characterized by a valve configured to prevent draining of the liquid trap by the jet pump (44, 144) when a pressure differential created by liquid flow through the venturi nozzle (48, 148) is below a predetermined level, and to allow fluid communication between the jet pump (44, 144) and the liquid trap to at least partially drain the liquid trap when the pressure differential is above the predetermined level.
A method of assembling first and second curvilinear components (16, 12) to a support structure having an axis (a-a), the first component having a faying edge axially spaced and radially aligned with a faying edge of the second component; the method comprising: preassembling the first component to the support structure; conducting a preassembly measurement of radial gaps (26a-c) between the support structure and the faying edge of the second component to calculate an average value of radial gaps (26a-c) extending circumferentially between the second component and the support structure, including an assessment of whether the calculated average value of all radial gaps falls within structurally predetermined acceptable limits; selecting a specific shim thickness (50a-h), from among prefabricated sets of shims, closest to that of one set that corresponds to the calculated average radial gap value; applying a plurality of shims of the specific thickness (50a-h) selected to the support structure in a position prospectively determined to be under the edge of the second component, each shim being spaced circumferentially about the support structure; and permanently securing the second component to the support structure, in a manner such that the faying edges (21, 19) of the first and second components (16, 12) are fixed in radial alignment with each other. preassembling the first component to the support structure; conducting a preassembly measurement of radial gaps (26a-c) between the support structure and the faying edge of the second component to calculate an average value of radial gaps (26a-c) extending circumferentially between the second component and the support structure, including an assessment of whether the calculated average value of all radial gaps falls within structurally predetermined acceptable limits; selecting a specific shim thickness (50a-h), from among prefabricated sets of shims, closest to that of one set that corresponds to the calculated average radial gap value; applying a plurality of shims of the specific thickness (50a-h) selected to the support structure in a position prospectively determined to be under the edge of the second component, each shim being spaced circumferentially about the support structure; and permanently securing the second component to the support structure, in a manner such that the faying edges (21, 19) of the first and second components (16, 12) are fixed in radial alignment with each other.
An electrical storage device temperature measuring method comprising: measuring an internal impedance of an electrical storage device by using a signal of a frequency equal to or higher than 5 kHz; and calculating an internal temperature of the electrical storage device from a measured value of the internal impedance. measuring an internal impedance of an electrical storage device by using a signal of a frequency equal to or higher than 5 kHz; and calculating an internal temperature of the electrical storage device from a measured value of the internal impedance.
An apparatus comprising: a phased array system comprising a set of tunable delay elements; characterized in that the set of tunable delay elements comprise at least one active delay element and at least one passive delay element, wherein the at least one active delay element provides a first resolution, and the at least one passive delay element provides a second resolution, wherein the second resolution is smaller than the first resolution, and the resolution corresponds to delay applied to an input signal by a corresponding one of the active or passive delay elements, and wherein the first resolution is a first set of discrete steps for phase over which the at least one active delay element can be operated, the second resolution is a second set of discrete steps for phase over which the at least one passive delay element can be operated, and a number of discrete steps in the first set is less than a number of discrete steps in the second set. a phased array system comprising a set of tunable delay elements; characterized in that the set of tunable delay elements comprise at least one active delay element and at least one passive delay element, wherein the at least one active delay element provides a first resolution, and the at least one passive delay element provides a second resolution, wherein the second resolution is smaller than the first resolution, and the resolution corresponds to delay applied to an input signal by a corresponding one of the active or passive delay elements, and wherein the first resolution is a first set of discrete steps for phase over which the at least one active delay element can be operated, the second resolution is a second set of discrete steps for phase over which the at least one passive delay element can be operated, and a number of discrete steps in the first set is less than a number of discrete steps in the second set.
A sensor system, comprising: a memory arranged to store computer executable instructions; and a processor arranged to execute computer executable instructions stored in the memory, wherein the computer executable instructions stored in the memory, when executed by the processor, cause the processor to carry out the following steps: an analog measurement step that measures, based on a clock signal provided to the sensor system, analog data indicative of rotational speed data, and phase data associated with a mechanical element that rotates, wherein the clock signal is synchronized across the sensor system and a group of sensor devices; an encoder step that encodes the clock signal, the analog data indicative of the rotational speed data and phase data into a digital data packet in a format that enables transmission via a digital network; and a communication step that transmits the digital data packet to one or more sensor devices in communication with the sensor system, wherein the clock signal is synchronized to a time reference signal. a memory arranged to store computer executable instructions; and a processor arranged to execute computer executable instructions stored in the memory, wherein the computer executable instructions stored in the memory, when executed by the processor, cause the processor to carry out the following steps: an analog measurement step that measures, based on a clock signal provided to the sensor system, analog data indicative of rotational speed data, and phase data associated with a mechanical element that rotates, wherein the clock signal is synchronized across the sensor system and a group of sensor devices; an encoder step that encodes the clock signal, the analog data indicative of the rotational speed data and phase data into a digital data packet in a format that enables transmission via a digital network; and a communication step that transmits the digital data packet to one or more sensor devices in communication with the sensor system, an analog measurement step that measures, based on a clock signal provided to the sensor system, analog data indicative of rotational speed data, and phase data associated with a mechanical element that rotates, wherein the clock signal is synchronized across the sensor system and a group of sensor devices; an encoder step that encodes the clock signal, the analog data indicative of the rotational speed data and phase data into a digital data packet in a format that enables transmission via a digital network; and a communication step that transmits the digital data packet to one or more sensor devices in communication with the sensor system, wherein the clock signal is synchronized to a time reference signal.
A charging apparatus (100, 101) for charging a battery, the apparatus (100, 101) comprising: a temperature measurer that is configured to measure an ambient temperature of the battery; a storage device that is configured to correlate the ambient temperature with a charging voltage value in advance and configured to store the correlation; a controller that is configured to read out the charging voltage value correlated with the temperature measured by said temperature measurer from said storage device; and a charger that is configured to charge the battery at the charging voltage value read out by said controller, characterized in that said storage device is configured to store a higher voltage value for a higher measured temperature. a temperature measurer that is configured to measure an ambient temperature of the battery; a storage device that is configured to correlate the ambient temperature with a charging voltage value in advance and configured to store the correlation; a controller that is configured to read out the charging voltage value correlated with the temperature measured by said temperature measurer from said storage device; and a charger that is configured to charge the battery at the charging voltage value read out by said controller, characterized in that said storage device is configured to store a higher voltage value for a higher measured temperature.
A strap loading assembly for a strapping machine for feeding a strap material around a load, positioning, tensioning and sealing the strap material around the load, the strapping machine having a feed head for feeding the strapping material into the strapping machine, the strapping machine including a strap chute through which the strapping material is conveyed and a sealing head to seal overlapping courses of the strapping material to one another, the strapping machine including a strap pre-feed assembly and a slack box positioned at least in part between the strap pre-feed and the feed head, the strap loading assembly comprising: a first rail; and a second rail movable between a deployed position and a stowed position, the second rail, when in the deployed position, confronting the first rail and defining a strap guide with the first rail through the slack box, the second rail, when in the stowed position, opening the strap guide to the slack box; characterised in that the strap loading assembly further comprises a link operably connecting the first rail and the second rail, wherein strap material in the strap guide, when in tension, exerts a force on the first rail to move the link, the link moving the second rail from the deployed position to the stowed position. a first rail; and a second rail movable between a deployed position and a stowed position, the second rail, when in the deployed position, confronting the first rail and defining a strap guide with the first rail through the slack box, the second rail, when in the stowed position, opening the strap guide to the slack box; characterised in that the strap loading assembly further comprises a link operably connecting the first rail and the second rail, wherein strap material in the strap guide, when in tension, exerts a force on the first rail to move the link, the link moving the second rail from the deployed position to the stowed position.