mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network element of a fixed cellular network infrastructure, the method comprising: establishing a communication connection with a mobile relay base station comprising a distributed antenna system comprising a plurality of spatially distributed antenna units (110, 112, 114, 116, 118, 120, 122), wherein at least part of the spatially distributed antenna units (110, 112, 114, 116, 118) are used for forming a cluster of sub-cells within a coverage area of the mobile relay base station and at least part of the spatially distributed antenna units (120, 122) are used for communicating with the fixed cellular network infrastructure over one or more backhaul links; creating a mobile relay backhaul radio link context for use in configuration of the mobile relay base station, wherein the mobile backhaul radio link context comprises parameters used for controlling the allocation of the spatially distributed antenna units to the one or more backhaul links of the mobile relay base station and parameters used for controlling handover of said one or more backhaul links between base stations of the fixed cellular network infrastructure; and configuring operation of one or more backhaul radio links of the mobile relay base station by transferring control messages with the mobile relay base station. establishing a communication connection with a mobile relay base station comprising a distributed antenna system comprising a plurality of spatially distributed antenna units (110, 112, 114, 116, 118, 120, 122), wherein at least part of the spatially distributed antenna units (110, 112, 114, 116, 118) are used for forming a cluster of sub-cells within a coverage area of the mobile relay base station and at least part of the spatially distributed antenna units (120, 122) are used for communicating with the fixed cellular network infrastructure over one or more backhaul links; creating a mobile relay backhaul radio link context for use in configuration of the mobile relay base station, wherein the mobile backhaul radio link context comprises parameters used for controlling the allocation of the spatially distributed antenna units to the one or more backhaul links of the mobile relay base station and parameters used for controlling handover of said one or more backhaul links between base stations of the fixed cellular network infrastructure; and configuring operation of one or more backhaul radio links of the mobile relay base station by transferring control messages with the mobile relay base station.
A vapour generating device comprising: a vapour generating means configured to generate aerosol; a receiver configured to receive a positioning signal; a processor configured to determine a direction from a determined position of the vapour generating device to an area of interest; and an indicator configured to indicate to a user of the vapour generating device the direction to the area of interest; wherein the vapour generating device is an e-cigarette, and wherein the vapour generating device is not a smartphone. a vapour generating means configured to generate aerosol; a receiver configured to receive a positioning signal; a processor configured to determine a direction from a determined position of the vapour generating device to an area of interest; and an indicator configured to indicate to a user of the vapour generating device the direction to the area of interest; wherein the vapour generating device is an e-cigarette, and wherein the vapour generating device is not a smartphone.
An integrated circuit comprising: a digital signal processor, DSP, configured to process a digital signal; and a successive approximation analog-to-digital converter, ADC, comprising a plurality of capacitors and a plurality of switches and configured to: convert an analog signal to the digital signal by determining bits of the digital signal by switching a voltage connected to at least one capacitor from among a plurality of capacitors from a first reference voltage to a second reference voltage, and characterized in that said switching the voltage comprises performing, by at least one switch from among the plurality of switches, multi-level switching of the at least one capacitor for switching the voltage from the first reference voltage to the second reference voltage through a power source capacitor thereby pre-charging the power source capacitor with a voltage that is lower than the first reference voltage, and higher than the second reference voltage, and generating a power source capable of supplying power to an external device, wherein a capacitance of the power source capacitor is greater than a capacitance of the at least one capacitor; and in that the successive approximation ADC is further configured to: supply power to the DSP based on the power source. a digital signal processor, DSP, configured to process a digital signal; and a successive approximation analog-to-digital converter, ADC, comprising a plurality of capacitors and a plurality of switches and configured to: convert an analog signal to the digital signal by determining bits of the digital signal by switching a voltage connected to at least one capacitor from among a plurality of capacitors from a first reference voltage to a second reference voltage, and characterized in that said switching the voltage comprises performing, by at least one switch from among the plurality of switches, multi-level switching of the at least one capacitor for switching the voltage from the first reference voltage to the second reference voltage through a power source capacitor thereby pre-charging the power source capacitor with a voltage that is lower than the first reference voltage, and higher than the second reference voltage, and generating a power source capable of supplying power to an external device, wherein a capacitance of the power source capacitor is greater than a capacitance of the at least one capacitor; and in that the successive approximation ADC is further configured to: supply power to the DSP based on the power source.
A medical device for use in replacing a native aortic heart valve and repairing defects in an aortic arch or a thoracic aorta, the medical device comprising: a conduit having a first end configured to be anchored at the native aortic heart valve and a second end configured to be positioned within the aortic arch or the thoracic aorta, the conduit comprising a frame and a sleeve, the frame comprising a balloon-expandable tubular frame portion and a self-expandable tubular frame portion formed contiguously with the balloon-expandable tubular frame, the sleeve extending axially along and against the balloon-expandable tubular frame portion, and the self-expandable tubular frame portion supporting valve leaflets therein so as form a prosthetic valve; and a retractable sheath defining an interior portion into which at least the prosthetic valve is compressed radially inwardly, wherein the self-expandable tubular frame portion is configured to expand in a radially outward direction to frictionally engage at least a portion of the native aortic heart valve and inhibit axial movement of the conduit relative to the native aortic heart valve. a conduit having a first end configured to be anchored at the native aortic heart valve and a second end configured to be positioned within the aortic arch or the thoracic aorta, the conduit comprising a frame and a sleeve, the frame comprising a balloon-expandable tubular frame portion and a self-expandable tubular frame portion formed contiguously with the balloon-expandable tubular frame, the sleeve extending axially along and against the balloon-expandable tubular frame portion, and the self-expandable tubular frame portion supporting valve leaflets therein so as form a prosthetic valve; and a retractable sheath defining an interior portion into which at least the prosthetic valve is compressed radially inwardly, wherein the self-expandable tubular frame portion is configured to expand in a radially outward direction to frictionally engage at least a portion of the native aortic heart valve and inhibit axial movement of the conduit relative to the native aortic heart valve.
A surface NMES stimulation device the device comprising: a control processor, a voltage regulator connected to a high voltage supply, an H-bridge arrangement of control switches, electrodes or electrode terminals connected in the bridge to receive drive signals via the control switches, at least one isolation capacitor isolating the high voltage supply from the electrodes, the bridge comprises top switches (22, 21) linked with the isolation capacitor and bottom switches (24, 23) linked to ground, wherein charging of the capacitor only occurs if a switch between the high voltage supply and the capacitor is closed, characterised in that, the processor is adapted to direct a drive scheme for the bridge control switches in which charge build-up on a user's skin is allowed to dissipate to ground in an inter-pulse interval, and in that, the drive scheme includes: applying a current pulse causing a build-up of charge concentrated at the skin-electrode interface, applying a second pulse of opposite polarity, in the interval between said pulses causing the skin-electrode charge to dissipate to ground by closing the bottom bridge switches, thereby reducing the peak current of the second pulse. a control processor, a voltage regulator connected to a high voltage supply, an H-bridge arrangement of control switches, electrodes or electrode terminals connected in the bridge to receive drive signals via the control switches, at least one isolation capacitor isolating the high voltage supply from the electrodes, the bridge comprises top switches (22, 21) linked with the isolation capacitor and bottom switches (24, 23) linked to ground, wherein charging of the capacitor only occurs if a switch between the high voltage supply and the capacitor is closed, characterised in that, the processor is adapted to direct a drive scheme for the bridge control switches in which charge build-up on a user's skin is allowed to dissipate to ground in an inter-pulse interval, and in that, the drive scheme includes: applying a current pulse causing a build-up of charge concentrated at the skin-electrode interface, applying a second pulse of opposite polarity, in the interval between said pulses causing the skin-electrode charge to dissipate to ground by closing the bottom bridge switches, thereby reducing the peak current of the second pulse. applying a current pulse causing a build-up of charge concentrated at the skin-electrode interface, applying a second pulse of opposite polarity, in the interval between said pulses causing the skin-electrode charge to dissipate to ground by closing the bottom bridge switches, thereby reducing the peak current of the second pulse.
A composition for use in the treatment of head and neck cancer, the treatment comprising administration of said composition, wherein said composition comprises a Retinoic Acid Receptor γ (RARγ) agonist and a Retinoid X Receptor agonist, wherein said RARγ agonist is CD1530 or another RARγ agonist and said RXR agonist is bexarotene.
A method, comprising: computing a skin temperature at a location at an outer surface of a device housing of a computing system using a skin temperature model that models skin temperature based on heat generation estimates for each of a plurality of heat generating components of the computing system in conjunction with a thermal model of the device, wherein computing the skin temperature includes: estimating heat generated by each component of the plurality of components based on an activity metric associated with the component; and summing contributions of the estimates of heat generated by each component of the plurality of components to compute the skin temperature at the location; identifying an application type for an application executing on the device; determining an interactivity metric for the application based on the application type, the interactivity metric associated with an amount of user interactivity with the device; determining an interactivity adjustment factor based on the interactivity metric, where a magnitude of the interactivity adjustment factor is inversely related to the amount of user interactivity indicated by the interactivity metric; calculating a skin temperature threshold based on the interactivity adjustment factor and a default skin temperature threshold; and controlling a package power limit that limits the total power consumed by components of the computing system based on the skin temperature and the skin temperature threshold. estimating heat generated by each component of the plurality of components based on an activity metric associated with the component; and summing contributions of the estimates of heat generated by each component of the plurality of components to compute the skin temperature at the location; identifying an application type for an application executing on the device; determining an interactivity metric for the application based on the application type, the interactivity metric associated with an amount of user interactivity with the device; determining an interactivity adjustment factor based on the interactivity metric, where a magnitude of the interactivity adjustment factor is inversely related to the amount of user interactivity indicated by the interactivity metric; calculating a skin temperature threshold based on the interactivity adjustment factor and a default skin temperature threshold; and controlling a package power limit that limits the total power consumed by components of the computing system based on the skin temperature and the skin temperature threshold.
A method performed by a base station, BS, in a wireless communication system, the method comprising: transmitting, to a user equipment, UE, a remaining minimum system information, RMSI, physical downlink shared channel, PDSCH, including a RMSI, wherein a reference signal sequence related to the RMSI PDSCH is generated, wherein the reference signal sequence is based on a resource block, RB, indexing for a part of the system bandwidth, wherein the RMSI comprises an offset for a RB indexing for a system bandwidth; and after transmitting the RMSI PDSCH, transmitting another PDSCH other than the RMSI PDSCH to the UE, wherein a reference signal sequence related to the another PDSCH is generated, wherein the reference signal sequence is based on the RB indexing for the system bandwidth. transmitting, to a user equipment, UE, a remaining minimum system information, RMSI, physical downlink shared channel, PDSCH, including a RMSI, wherein a reference signal sequence related to the RMSI PDSCH is generated, wherein the reference signal sequence is based on a resource block, RB, indexing for a part of the system bandwidth, wherein the RMSI comprises an offset for a RB indexing for a system bandwidth; and after transmitting the RMSI PDSCH, transmitting another PDSCH other than the RMSI PDSCH to the UE, wherein a reference signal sequence related to the another PDSCH is generated, wherein the reference signal sequence is based on the RB indexing for the system bandwidth.
A rechargeable battery comprising: an electrode assembly; a case for accommodating the electrode assembly, said case being in a polyhedral shape and comprising a bottom for supporting a flat portion of the electrode assembly, a side wall extending along a circumference of the bottom with a height less than the lengths of each lateral side of the bottom and an opening formed in a side of the case opposite the bottom; a cover for sealing the opening of the case; a vent integral with the side wall of the case, and a vent protective portion adjacent to the vent, characterized in that the vent protective portion comprises a first protruded portion protruding to an inner side of the case from the bottom and from the side wall, and a second protruded portion protruding to the inner side of the case from the cover adjacent to the vent. an electrode assembly; a case for accommodating the electrode assembly, said case being in a polyhedral shape and comprising a bottom for supporting a flat portion of the electrode assembly, a side wall extending along a circumference of the bottom with a height less than the lengths of each lateral side of the bottom and an opening formed in a side of the case opposite the bottom; a cover for sealing the opening of the case; a vent integral with the side wall of the case, and a vent protective portion adjacent to the vent, characterized in that the vent protective portion comprises a first protruded portion protruding to an inner side of the case from the bottom and from the side wall, and a second protruded portion protruding to the inner side of the case from the cover adjacent to the vent.
A method for a first network device of a plurality of network devices, also including at least a second network device, the plurality of network devices being communicatively coupled via a communication means, the method comprising: detecting a first voice input, wherein the first voice input is a wakeword and detection of the first voice input triggers a start of a time interval; determining a first measure of confidence indicating how well the first voice input was detected by the first network device; receiving a message comprising a second measure of confidence indicating how well the first voice input was detected by a second network device; detecting a second voice input that follows the first voice input; if the first measure of confidence is greater than the second measure of confidence, waiting for expiration of the time interval before sending, by the first network device, the second voice input to a server so that the server can perform voice recognition on the second voice input; and if the first measure of confidence is not greater than the second measure of confidence, not sending, by the first network device, the second voice input to the server, wherein a duration of the time interval is adjusted based on a learning algorithm intended to minimize the time interval without two network devices sending the second voice input to the server, the learning algorithm comprising: setting the time interval to an initial value; and increasing the time interval when it is determined that at least two network devices sent the second voice input to the server. detecting a first voice input, wherein the first voice input is a wakeword and detection of the first voice input triggers a start of a time interval; determining a first measure of confidence indicating how well the first voice input was detected by the first network device; receiving a message comprising a second measure of confidence indicating how well the first voice input was detected by a second network device; detecting a second voice input that follows the first voice input; if the first measure of confidence is greater than the second measure of confidence, waiting for expiration of the time interval before sending, by the first network device, the second voice input to a server so that the server can perform voice recognition on the second voice input; and if the first measure of confidence is not greater than the second measure of confidence, not sending, by the first network device, the second voice input to the server, wherein a duration of the time interval is adjusted based on a learning algorithm intended to minimize the time interval without two network devices sending the second voice input to the server, the learning algorithm comprising: setting the time interval to an initial value; and increasing the time interval when it is determined that at least two network devices sent the second voice input to the server. setting the time interval to an initial value; and increasing the time interval when it is determined that at least two network devices sent the second voice input to the server.
A measurement method for analysing the propagation of electromagnetic navigation signal components, each of the navigation signal components (15, 16) being assigned at least one representative transmission device (100a,..., 100k; 220, 230), an analysis device being coupled to a receiver device and performing a time-dependent amplitude detection at a first frequency, the representative transmission devices (100a,..., 100k; 220, 230) being operated in a staggered manner, at least sometimes, characterised in that each representative transmission device (100a,..., 100k; 220, 230) is assigned a chronological supply schema for each navigation signal component assigned to the representative transmission device, having - a characteristic transmission-free leading pause duration and/or transmission-free trailing pause duration which are maintained between the operating phases of the representative transmission devices (100a,..., 100k; 220, 230), or - a characteristic transmission duration which is maintained in the operating phases of the representative transmission devices, wherein the time profile of the received amplitude values is evaluated by the analysis device in order to assign the representative transmission device (100a,..., 100k; 220, 230) and the assigned navigation signal component to time segments of the received amplitude values, by - assigning the pause durations in the time profile of the amplitude values to the leading pause durations and/or trailing pause durations of the representative transmission device (100a,..., 100k; 220, 230), or - assigning the durations of the received signals in the time profile of the amplitude values to the transmission durations of the representative transmission device, wherein the propagation of the electromagnetic navigation signal components is analysed using the representative transmission devices in scaled measurement environments, wherein the scaled measurement environments are smaller than the model environments to be analysed, and wherein the representative transmission devices (100a,..., 100k; 220, 230) assigned to the navigation signal components are operated at scaled, higher frequencies. - a characteristic transmission-free leading pause duration and/or transmission-free trailing pause duration which are maintained between the operating phases of the representative transmission devices (100a,..., 100k; 220, 230), - a characteristic transmission duration which is maintained in the operating phases of the representative transmission devices, - assigning the pause durations in the time profile of the amplitude values to the leading pause durations and/or trailing pause durations of the representative transmission device (100a,..., 100k; 220, 230), or - assigning the durations of the received signals in the time profile of the amplitude values to the transmission durations of the representative transmission device,
A duodenoscope and disposable consumables to protect the duodenoscope, the duodenoscope comprising a duodenoscope body having an insertion portion covered with a cuff, wherein a disposable forceps passage tube is inserted into a tube of the duodenoscope body, a distal end of the duodenoscope body is covered with an end cap which is integrally connected to the cuff and the disposable forceps passage tube, an elongated opening, which is of the same shape as an opening of a head end of the duodenoscope body, is formed in a side face of the end cap, and a forceps-lifting unit is disposed in the head end of the duodenoscope body, a pulley (1.4) is disposed on the head of the forceps-lifting unit (1.2), and a groove is formed in the periphery of the pulley (1.4), wherein the end cap is made of a transparent elastic material; a soft connection port is disposed in the elongated opening (2.1) of the end cap, the soft connection port being shaped like a smoking pipe and made of an elastic film; an outer edge of a large-orifice end (5.1) of the soft connection port is glued to an edge of the elongated opening (2.1) of the end cap, and a small-orifice end (5.2) of the soft connection port sleeves and is glued to a distal end of the disposable forceps passage tube.