mhurhangee/ep-ind-claims huggingface dataset:
A medical device comprising: a motion sensor configured to produce a motion signal; and a control circuit configured to: set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude. a motion sensor configured to produce a motion signal; and a control circuit configured to: set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude. set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude.
Method for producing a heatable media line, comprising a media line, at least one line connector (11, 17, 211), a transition region (18, 19) between the media line and the line connector (11, 17, 211) and at least one heating element, wherein the heating element has a small number of wires (20, 21), in particular two wires, wherein the heating element is wound continuously around a tubular media line and the heating element is prefabricated fastened or fixed to the media line by at least one fastening means, the media line is cut to a first application-specific length which corresponds to the desired media line length (I R) plus the heating element length (I H) required for winding around the at least one line connector (11, 17, 211) and the transition region (18, 19), the fastening means is removed in the region (12, 13, 112, 113) outside the desired media line length (I R), the heating element is unwound from the media line portion cut to the first length, the media line is cut to the desired media line length (I R) to form a second media line portion (14, 114), the media line portion (14, 114) is connected as the media line to the at least one line connector (11, 17, 211), and the heating element is wound around at least the at least one line connector (11, 17, 211).
Gas valve device having at least one first valve unit and at least one second valve unit, which are provided for at least substantially opening and/or closing a fluid line, having at least one coil, which is provided for actuating the first valve unit and the second valve unit, and having an actuation unit, which is provided for supplying at least one electrical voltage to the coil for actuating the valve units (12, 14), wherein the actuation unit is provided for supplying at least one first electrical voltage to the coil in at least one first operating state and at least one second electrical voltage, which differs from the first electrical voltage, to said coil in at least one second operating state, both electrical voltages differing from zero, characterized in that, with the second electrical voltage applied, the first valve unit is open and the second valve unit is closed, wherein a sensor unit is provided for detecting at least one sensor characteristic value with regard to a presence of fluid in at least one section of the fluid line, wherein the actuation unit is provided for checking at least one closure state of the second valve unit by means of the sensor characteristic value.
A communication method performed by a base station, comprising: sending first information indicating a first subcarrier spacing to user equipment, UE, wherein the first information is carried in a broadcast channel, and wherein the first subcarrier spacing is used for a common control or common data channel; and sending second information indicating a second subcarrier spacing, wherein the second information is comprised in system information, wherein the second subcarrier spacing is used for a random access channel, the second subcarrier spacing equals to 15 kilohertz, kHz, 30kHz, 60kHz or 120kHz; selecting, based on a reference signal measurement value indication corresponding to at least one subcarrier spacing, one subcarrier spacing from the at least one subcarrier spacing as a third subcarrier spacing corresponding to the UE; selecting, based on a reference signal measurement value indication corresponding to at least one cyclic prefix, CP, type, a CP type from the at least one CP type as a CP type corresponding to the UE, wherein the third subcarrier spacing is used for a UE-level channel; sending third information indicating the third subcarrier spacing and the CP type to the UE via radio resource control, RRC, signaling; communicating with the UE based on the first subcarrier spacing, the second subcarrier spacing, the third subcarrier spacing and the CP type. sending first information indicating a first subcarrier spacing to user equipment, UE, wherein the first information is carried in a broadcast channel, and wherein the first subcarrier spacing is used for a common control or common data channel; and sending second information indicating a second subcarrier spacing, wherein the second information is comprised in system information, wherein the second subcarrier spacing is used for a random access channel, the second subcarrier spacing equals to 15 kilohertz, kHz, 30kHz, 60kHz or 120kHz; selecting, based on a reference signal measurement value indication corresponding to at least one subcarrier spacing, one subcarrier spacing from the at least one subcarrier spacing as a third subcarrier spacing corresponding to the UE; selecting, based on a reference signal measurement value indication corresponding to at least one cyclic prefix, CP, type, a CP type from the at least one CP type as a CP type corresponding to the UE, wherein the third subcarrier spacing is used for a UE-level channel; sending third information indicating the third subcarrier spacing and the CP type to the UE via radio resource control, RRC, signaling; communicating with the UE based on the first subcarrier spacing, the second subcarrier spacing, the third subcarrier spacing and the CP type.
Method for controlling the operation of an electric motor, wherein electrical voltages applied to electrical phases of the electric motor are generated and output in a controlled manner in a modulation - on the basis of a rotor position of the electric motor, - on the basis of a setpoint/actual comparison of a speed of the electric motor executed in a control loop by a speed controller, - on the basis of a setpoint/actual comparison of a total current (I DC_actual) measured on an electric power supply unit of the electric motor executed by a current regulator which is subordinate to the speed controller, - wherein a setpoint value (I DC) at the input of the current regulator is formed by multiplying a present duty factor for modulation by a first manipulated variable (I AC) applied to the output of the speed controller and in the form of an equivalent phase current of the electric motor, - wherein the first manipulated variable (I AC) of the speed controller becomes an equivalent phase current RMS value for the electric motor in the subordinate current regulator, by means of multiplication, executed by a multiplier arranged on the output of the speed controller, by the present duty factor, - wherein the duty factor, by the division of a second manipulated variable (U out) applied to the output of the current regulator, is constituted by a maximum intermediate circuit voltage (U ZK) available on the power supply unit. - on the basis of a rotor position of the electric motor, - on the basis of a setpoint/actual comparison of a speed of the electric motor executed in a control loop by a speed controller, - on the basis of a setpoint/actual comparison of a total current (I DC_actual) measured on an electric power supply unit of the electric motor executed by a current regulator which is subordinate to the speed controller, - wherein a setpoint value (I DC) at the input of the current regulator is formed by multiplying a present duty factor for modulation by a first manipulated variable (I AC) applied to the output of the speed controller and in the form of an equivalent phase current of the electric motor, - wherein the first manipulated variable (I AC) of the speed controller becomes an equivalent phase current RMS value for the electric motor in the subordinate current regulator, by means of multiplication, executed by a multiplier arranged on the output of the speed controller, by the present duty factor, - wherein the duty factor, by the division of a second manipulated variable (U out) applied to the output of the current regulator, is constituted by a maximum intermediate circuit voltage (U ZK) available on the power supply unit.
An apparatus for improving wound healing by enhancing blood flow in a vertebrate organism's limb comprising: (a) means for detecting cardiovascular activity of the organism; (b) means for compressing at least one limb of the organism progressively from a proximal region to a distal region of the limb; (c) means for triggering the compressing means in timed relation with the detected cardiovascular activity, wherein the means for compressing at least one vertebrate organism's limb comprises one or more pneumatic devices adapted to substantially surround at least one transverse region of the limb, thereby compressing the surrounded region in response to an increase in pneumatic pressure applied to the device, characterized in that the means for compressing at least one vertebrate organism's limb comprises a multi-compartment pneumatic device having fluid conduits between adjacent compartments, wherein the fluid conduits are sized to provide progressive changes in pneumatic pressure within each more distal compartment when such pressure is changed to the adjacent proximal compartment, wherein each fluid conduit comprises a valve, wherein each valve changes state in response to a threshold pressure in the adjacent proximal compartment, wherein the threshold pressure is electrically controllable. (a) means for detecting cardiovascular activity of the organism; (b) means for compressing at least one limb of the organism progressively from a proximal region to a distal region of the limb; (c) means for triggering the compressing means in timed relation with the detected cardiovascular activity, wherein the means for compressing at least one vertebrate organism's limb comprises one or more pneumatic devices adapted to substantially surround at least one transverse region of the limb, thereby compressing the surrounded region in response to an increase in pneumatic pressure applied to the device, characterized in that the means for compressing at least one vertebrate organism's limb comprises a multi-compartment pneumatic device having fluid conduits between adjacent compartments, wherein the fluid conduits are sized to provide progressive changes in pneumatic pressure within each more distal compartment when such pressure is changed to the adjacent proximal compartment, wherein each fluid conduit comprises a valve, wherein each valve changes state in response to a threshold pressure in the adjacent proximal compartment, wherein the threshold pressure is electrically controllable.
A method of estimating the current load of a vehicle, characterized in that the method comprises the steps of: - defining at least two weight classes; - providing a filter bank including, for each of the at least two weight classes, a filter, each filter implementing a vehicle model for estimating the current load of the vehicle; - supplying, to each filter, at least one vehicle data indicative of a current driving situation of the vehicle, and at least one current filter parameter specific for the respective weight class; - determining, by means of each filter, a load estimation value as filter specific estimation of the current load of the vehicle; - determining, for each load estimation value, a current indication whether it can be assumed that the current load of the vehicle belongs to the respective weight class; and - selecting, among all load estimation values, the load estimation value having the best current indication as estimation of the current load of the vehicle for the current driving situation and/or weighing the current indications for the weight classes to obtain an overall load estimation value for the filter bank, wherein the overall load estimation value is used as load estimation for the current load of the vehicle for the current driving situation. - defining at least two weight classes; - providing a filter bank including, for each of the at least two weight classes, a filter, each filter implementing a vehicle model for estimating the current load of the vehicle; - supplying, to each filter, at least one vehicle data indicative of a current driving situation of the vehicle, and at least one current filter parameter specific for the respective weight class; - determining, by means of each filter, a load estimation value as filter specific estimation of the current load of the vehicle; - determining, for each load estimation value, a current indication whether it can be assumed that the current load of the vehicle belongs to the respective weight class; and - selecting, among all load estimation values, the load estimation value having the best current indication as estimation of the current load of the vehicle for the current driving situation and/or weighing the current indications for the weight classes to obtain an overall load estimation value for the filter bank, wherein the overall load estimation value is used as load estimation for the current load of the vehicle for the current driving situation.
Method for detecting and/or inspecting an object, in particular a capsule (13, 14), inserted into a stick-shaped or rod-shaped multi-segment product of the tobacco processing industry, wherein the multi-segment product is longitudinally axially conveyed through a measuring device (3, 50, 52) which comprises a microwave and/or high-frequency measuring device (3, 50) and an optical measuring device and outputs a microwave and/or high-frequency measuring signal and an optical measuring signal which are transmitted to a downstream evaluation device (8, 33) for evaluation, wherein the microwave and/or high-frequency measurement signal and/or the optical measurement signal is a time-dependent and/or location-dependent signal and the evaluation device (8, 33) forms at least one derivative from the time-dependent and/or location-dependent signal and the recognition and/or inspection of the object is based on an evaluation of the at least one derivative, wherein - a transition between segments of a multi-segment product is determined by evaluating the measuring signal of the optical measuring device, and - the distance of an inserted object to a transition between segments of the multi-segment product is determined by the combined evaluation of the measuring signals of the optical measuring device and the microwave and/or high-frequency measuring device (3, 50). - a transition between segments of a multi-segment product is determined by evaluating the measuring signal of the optical measuring device, and - the distance of an inserted object to a transition between segments of the multi-segment product is determined by the combined evaluation of the measuring signals of the optical measuring device and the microwave and/or high-frequency measuring device (3, 50).
A catalytic process for preparing an α,β -ethylenically unsaturated carboxylic acid salt, wherein an alkene and carbon dioxide are reacted in the presence of a carboxylation catalyst and in the presence of an aryloxide to obtain the α,β -ethylenically unsaturated carboxylic acid salt, the carboxylation catalyst being a transition metal complex, wherein the aryloxide corresponds to the general formula wherein R is selected from F, Cl, Br, I, C 1 -C 16 -alkyl, and C 3 -C 16 -cycloalkyl, and two vicinal R may constitute a C 3 -C 5 -hydrocarbylene bridge that is optionally substituted by one to four substituents which are independently selected from F, Cl, Br, I, C 1 -C 16 -alkyl, and C 3 -C 16 -cycloalkyl, and n is an integer selected from 1 to 5, wherein at most two R are F. R is selected from F, Cl, Br, I, C 1 -C 16 -alkyl, and C 3 -C 16 -cycloalkyl, and two vicinal R may constitute a C 3 -C 5 -hydrocarbylene bridge that is optionally substituted by one to four substituents which are independently selected from F, Cl, Br, I, C 1 -C 16 -alkyl, and C 3 -C 16 -cycloalkyl, and n is an integer selected from 1 to 5,
A safety arrangement for a medicament delivery device, comprising a container holder with a body section and a flange seat, and a shell, wherein the container holder is arranged to receive a container with a longitudinal body at one end passing over into a distal flange and at an opposite end passing over into a proximal orifice via a shoulder such that the distal flange of the container contacts the flange seat of the container holder, and the container holder is arranged in the shell such that the container holder is movable in a proximal direction in relation to the shell, characterized in that a blocking element arranged between the shell and the container holder, and the blocking element travels when the container holder and the shell are moved in relation to each other; a blocking initiating structure arranged to reposition the blocking element when the container holder is moved in the proximal direction in relation to the shell from a first position corresponding to an inactive status to a second position corresponding to an active or delivery status to prevent at least a portion of the container from passing the blocking element in the proximal direction and leaving the shell when broken after the blocking element being repositioned by the blocking initiating structure.
An initiator injection nozzle for mixing an initiator with a process fluid, comprising: a body comprising an inlet port to receive the process fluid, an outlet port, and an injector inlet to receive initiator; a process fluid flow passage through which the process fluid traverses between the inlet port and outlet port along a central process flow axis, comprising a constricting portion, a throat, and an expanding portion in that order forming a Venturi-type shape flow passage; an initiator fluid flow passage through which the initiator traverses between the injector inlet and an injector outlet along an injector central axis, the injector central axis perpendicularly intersecting the central process flow axis, where the initiator fluid flow passage intersects the process fluid flow passage in the constricting portion; and a stylus at least partially containing the initiator fluid flow passage, the stylus protruding into the process fluid flow passage and further comprising a shaped injector tip forming the injector outlet of the initiator fluid flow passage. wherein: the stylus does not extend through the process fluid flow passage further than the central process flow axis; the injector outlet is located in the constricting portion of the process fluid flow passage and upstream of the throat by a first offset as determined along the central process flow axis; and the injector outlet is located off the central process flow axis by a second offset as determined along the injector central axis. a body comprising an inlet port to receive the process fluid, an outlet port, and an injector inlet to receive initiator; a process fluid flow passage through which the process fluid traverses between the inlet port and outlet port along a central process flow axis, comprising a constricting portion, a throat, and an expanding portion in that order forming a Venturi-type shape flow passage; an initiator fluid flow passage through which the initiator traverses between the injector inlet and an injector outlet along an injector central axis, the injector central axis perpendicularly intersecting the central process flow axis, where the initiator fluid flow passage intersects the process fluid flow passage in the constricting portion; and a stylus at least partially containing the initiator fluid flow passage, the stylus protruding into the process fluid flow passage and further comprising a shaped injector tip forming the injector outlet of the initiator fluid flow passage. the stylus does not extend through the process fluid flow passage further than the central process flow axis; the injector outlet is located in the constricting portion of the process fluid flow passage and upstream of the throat by a first offset as determined along the central process flow axis; and the injector outlet is located off the central process flow axis by a second offset as determined along the injector central axis.
A carpet cleaner comprising a base including a suction nozzle and a rotatable brushroll that is driven by a brush motor through a belt, wherein the brushroll is mounted for rotation in a brush carriage assembly, characterized by: a pair of spaced support legs (222, 224) pivotally mounted to the base and between them rotatably support the rotatable brushroll; and an end cap mounted to one of the support legs and configured to releasably retain the brushroll between the support legs (222, 224); whereby the brushroll can be easily changed by removing the end cap without the use of a tool. a pair of spaced support legs (222, 224) pivotally mounted to the base and between them rotatably support the rotatable brushroll; and an end cap mounted to one of the support legs and configured to releasably retain the brushroll between the support legs (222, 224);