mhurhangee/patent-ind-claim-en huggingface dataset:
A method for identifying events of interest from noisy physiological signal data, the method comprising: (a) receiving, by a computing system, physiological signal data; (b) generating filtered signal data by filtering the physiological signal data using a filter defined by a spectral band associated with a particular physiological event; (c) generating signal peak data with the computer system by identifying, for each of a plurality of time windows in the filtered data, a signal peak in the filtered data; (d) grouping waveforms from the physiological signal data corresponding to each of the plurality of time windows based on the signal peak data to generate clustered event data; (e) determining parameters for a noise beta distribution based at least in part on the signal peak data; (f) identifying at least one cluster of waveforms from the clustered event data that does not fall within the noise beta distribution, wherein each waveform in the at least one cluster represents a physiological events of interest in the physiological signal data; (g) generating a graphical representation based on the waveforms in the at least one cluster of waveforms; and (h) causing the graphical representation to be displayed. (a) receiving, by a computing system, physiological signal data; (b) generating filtered signal data by filtering the physiological signal data using a filter defined by a spectral band associated with a particular physiological event; (c) generating signal peak data with the computer system by identifying, for each of a plurality of time windows in the filtered data, a signal peak in the filtered data; (d) grouping waveforms from the physiological signal data corresponding to each of the plurality of time windows based on the signal peak data to generate clustered event data; (e) determining parameters for a noise beta distribution based at least in part on the signal peak data; (f) identifying at least one cluster of waveforms from the clustered event data that does not fall within the noise beta distribution, wherein each waveform in the at least one cluster represents a physiological events of interest in the physiological signal data; (g) generating a graphical representation based on the waveforms in the at least one cluster of waveforms; and (h) causing the graphical representation to be displayed.
A locking mechanism for an inner tub of a pulsator washing machine, wherein, the pulsator washing machine comprises the inner tub serving as a washing tub and an outer tub serving as a water containing tub, wherein the locking mechanism comprises a locking rod capable of reciprocating along an axial direction, a slideway for a movement of the locking rod and a driving unit for driving the locking rod to move, and the driving unit comprising a link, a crank and a rotating motor; characterized in that a linear bearing is arranged between the locking rod and the slideway .
An apparatus for deploying a pressure equalization tube in a tympanic membrane, the apparatus comprising: a housing ; a pressure equalization tube , wherein the pressure equalization tube is configured to transition from a straightened configuration to an expanded configuration, wherein the pressure equalization tube in the expanded configuration defines a proximal flange , a distal flange , and a middle portion between the proximal flange and the distal flange , wherein the proximal flange and the distal flange are configured to maintain the middle portion in the tympanic membrane; an elongate shaft assembly , the elongate shaft assembly including: a cutting member configured to puncture the tympanic membrane; and a dilator configured to dilate a puncture site to a larger diameter; the shaft assembly configured to hold the pressure equalization tube while the pressure equalization tube is in the straightened configuration and to release the pressure equalization tube such that the pressure equalization tube assumes the expanded configuration. a housing ; a pressure equalization tube , wherein the pressure equalization tube is configured to transition from a straightened configuration to an expanded configuration, wherein the pressure equalization tube in the expanded configuration defines a proximal flange , a distal flange , and a middle portion between the proximal flange and the distal flange , wherein the proximal flange and the distal flange are configured to maintain the middle portion in the tympanic membrane; an elongate shaft assembly , the elongate shaft assembly including: a cutting member configured to puncture the tympanic membrane; and a dilator configured to dilate a puncture site to a larger diameter; a cutting member configured to puncture the tympanic membrane; and a dilator configured to dilate a puncture site to a larger diameter; the shaft assembly configured to hold the pressure equalization tube while the pressure equalization tube is in the straightened configuration and to release the pressure equalization tube such that the pressure equalization tube assumes the expanded configuration.
A loudspeaker array , comprising: a plurality of transducers arranged in adjacent groups on opposing sides of a vertical axis of the loudspeaker array ; and a plurality of channel waveguides , each channel waveguide coupled to a different transducer of the plurality of transducers , outlets of each channel waveguide being center aligned with one another along the vertical axis of the loudspeaker array , resulting in a plurality of pairs of horizontally-adjacent pairs of channel waveguides and a plurality of horizontally-adjacent pairs of transducers , wherein at least a first inlet of the plurality of channel waveguides and a second inlet of the plurality of channel waveguides are substantially aligned along a horizontal plane, the horizontal plane being perpendicular to the vertical axis , and wherein each horizontally-adj acent pair of transducers are spaced by equal amounts from a depth axis , the depth axis extending from a center of an outlet of the plurality of channel waveguides , and the depth axis being perpendicular to the vertical axis and the horizontal plane; characterised in that the channel waveguides are angled but not curved in the horizontal plane relative to the depth axis . a plurality of transducers arranged in adjacent groups on opposing sides of a vertical axis of the loudspeaker array ; and a plurality of channel waveguides , each channel waveguide coupled to a different transducer of the plurality of transducers , outlets of each channel waveguide being center aligned with one another along the vertical axis of the loudspeaker array , resulting in a plurality of pairs of horizontally-adjacent pairs of channel waveguides and a plurality of horizontally-adjacent pairs of transducers , wherein at least a first inlet of the plurality of channel waveguides and a second inlet of the plurality of channel waveguides are substantially aligned along a horizontal plane, the horizontal plane being perpendicular to the vertical axis , and wherein each horizontally-adj acent pair of transducers are spaced by equal amounts from a depth axis , the depth axis extending from a center of an outlet of the plurality of channel waveguides , and the depth axis being perpendicular to the vertical axis and the horizontal plane; characterised in that the channel waveguides are angled but not curved in the horizontal plane relative to the depth axis .
A battery module , comprising: a battery cell stack in which a plurality of battery cells are stacked; a flame spread prevention member configured to cover at least a portion of each battery cell ; and a case configured to accommodate the battery cell stack covered by the flame spread prevention member , characterized in that the battery cell is a pouch-type battery cell having a section of a rectangular shape, and the flame spread prevention member has a hexahedral shape; wherein a hollow is formed in the flame spread prevention member so that the battery cell is inserted into the flame spread prevention member , wherein the flame spread prevention member includes a mica plate containing mica with both heat insulation and heat resistance. a battery cell stack in which a plurality of battery cells are stacked; a flame spread prevention member configured to cover at least a portion of each battery cell ; and a case configured to accommodate the battery cell stack covered by the flame spread prevention member , characterized in that the battery cell is a pouch-type battery cell having a section of a rectangular shape, and the flame spread prevention member has a hexahedral shape; wherein a hollow is formed in the flame spread prevention member so that the battery cell is inserted into the flame spread prevention member , wherein the flame spread prevention member includes a mica plate containing mica with both heat insulation and heat resistance.
A disconnect device comprising: a conductor connectable to an external conductive path; a housing including an internal space , the internal space accommodating at least a part of the conductor ; and a cooling body that is disposed in the internal space and configured to cool an arc generated in the internal space , wherein the cooling body includes a porous body configured with at least one of a metal oxide and an inorganic oxide; a gas generator configured to generate gas by combustion of fuel; and an operation pin that is accommodated in the internal space , is disposed above the conductor , and is caused to move downward by a pressure of the gas generated in the gas generator , wherein the conductor includes a terminal portion and a separation portion , the terminal portion is held by the housing and is connected to the external conductive path, the separation portion is accommodated in the internal space of the housing and becomes separated from the terminal portion , as the pin moves downward, and the cooling body configured to cool an arc generated when the separation portion is separated from the terminal portion , characterized in that the porous body has a fibrous structure and is deformable. a conductor connectable to an external conductive path; a housing including an internal space , the internal space accommodating at least a part of the conductor ; and a cooling body that is disposed in the internal space and configured to cool an arc generated in the internal space , wherein the cooling body includes a porous body configured with at least one of a metal oxide and an inorganic oxide; a gas generator configured to generate gas by combustion of fuel; and an operation pin that is accommodated in the internal space , is disposed above the conductor , and is caused to move downward by a pressure of the gas generated in the gas generator , wherein the conductor includes a terminal portion and a separation portion , the terminal portion is held by the housing and is connected to the external conductive path, the separation portion is accommodated in the internal space of the housing and becomes separated from the terminal portion , as the pin moves downward, and the cooling body configured to cool an arc generated when the separation portion is separated from the terminal portion , characterized in that the porous body has a fibrous structure and is deformable.
A method of manufacturing an LED lighting assembly , which method comprises the steps of - preparing a flexible carrier for a number of light-emitting diodes ; - mounting the light-emitting diodes onto the flexible carrier ; - providing a shaping element incorporating a heat spreader ; and - winding the flexible carrier about the shaping element in a helical manner; characterized in that the shaping element is flexible and is made of a material that can be bent into a desired shape or form. - preparing a flexible carrier for a number of light-emitting diodes ; - mounting the light-emitting diodes onto the flexible carrier ; - providing a shaping element incorporating a heat spreader ; and - winding the flexible carrier about the shaping element in a helical manner; characterized in that the shaping element is flexible and is made of a material that can be bent into a desired shape or form.
A fluid supply control device comprising: a gauging chamber configured to be charged with a fluid from a fluid supply source (A, 29); an inlet port through which the fluid flows into the gauging chamber ; an outlet port through which the fluid flows out from the gauging chamber ; a first valve element arranged inside the gauging chamber to close the inlet port ; a second valve element arranged inside the gauging chamber to close the outlet port ; an electromagnetic biasing structure configured to electromagnetically bias the first valve element to move the first valve element and to electromagnetically bias the second valve element to move the second valve element; and an elastic biasing structure configured to elastically bias at least one of the first valve element and the second valve element , wherein the first valve element and the second valve element are configured and arranged such that the first valve element and the second valve element are independently movable and are actuated with a time difference, wherein the electromagnetic biasing structure comprises a single electromagnetic coil , and wherein the first valve element and the second valve element are configured and arranged such that an intensity of the electromagnetic force of the electromagnetic coil that acts on the first valve element is different from an intensity of the electromagnetic force of the electromagnetic coil that acts on the second valve element . a gauging chamber configured to be charged with a fluid from a fluid supply source (A, 29); an inlet port through which the fluid flows into the gauging chamber ; an outlet port through which the fluid flows out from the gauging chamber ; a first valve element arranged inside the gauging chamber to close the inlet port ; a second valve element arranged inside the gauging chamber to close the outlet port ; an electromagnetic biasing structure configured to electromagnetically bias the first valve element to move the first valve element and to electromagnetically bias the second valve element to move the second valve element; and an elastic biasing structure configured to elastically bias at least one of the first valve element and the second valve element , wherein the first valve element and the second valve element are configured and arranged such that the first valve element and the second valve element are independently movable and are actuated with a time difference, wherein the electromagnetic biasing structure comprises a single electromagnetic coil , and wherein the first valve element and the second valve element are configured and arranged such that an intensity of the electromagnetic force of the electromagnetic coil that acts on the first valve element is different from an intensity of the electromagnetic force of the electromagnetic coil that acts on the second valve element .
A compound of formula I: or a pharmaceutically acceptable salt thereof: X is selected from O; R 1 is selected from substituted aralkyl, and substituted heteroaralkyl; R 2 is - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; R 3 is halophenyl; and R 4 - R 7 represents groups R 4 , R 5 , R 6 and R 7 which are independently selected from hydrogen, halo, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted hydroxyalkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroaralkyl, substituted or unsubstituted alkylamine, substituted or unsubstituted alkoxy, trifluoromethyl, amino, nitro, carboxyl, carbonylmethylsulfone, trifluoromethylsulfone, cyano and substituted or unsubstituted sulfonamide. X is selected from O; R 1 is selected from substituted aralkyl, and substituted heteroaralkyl; R 2 is - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; R 3 is halophenyl; and R 4 - R 7 represents groups R 4 , R 5 , R 6 and R 7 which are independently selected from hydrogen, halo, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted hydroxyalkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroaralkyl, substituted or unsubstituted alkylamine, substituted or unsubstituted alkoxy, trifluoromethyl, amino, nitro, carboxyl, carbonylmethylsulfone, trifluoromethylsulfone, cyano and substituted or unsubstituted sulfonamide.
A method of signaling for turns for a vehicle having an autonomous driving mode, the method comprising: receiving, by one or more processors , a trajectory that the vehicle will follow for some period of time into the future; processing, by the one or more processors , at least a portion of the trajectory to identify a turning event , the turning event corresponding to a location where the vehicle plans to turn and for which the vehicle will need to use a turn signal ; determining, by the one or more processors , that the trajectory includes a negative turning event located some threshold distance before the turning event , the negative turning event corresponding to a location along the trajectory where the vehicle could make a turn, but does not plan to make a turn; while the vehicle is operating in the autonomous driving mode: using the negative turning event to temporarily prevent activation of the turn signal ; and determining, based on a type of the turning event , whether to override the temporary prevention and to activate, by the one or more processors , the turn signal of the vehicle . receiving, by one or more processors , a trajectory that the vehicle will follow for some period of time into the future; processing, by the one or more processors , at least a portion of the trajectory to identify a turning event , the turning event corresponding to a location where the vehicle plans to turn and for which the vehicle will need to use a turn signal ; determining, by the one or more processors , that the trajectory includes a negative turning event located some threshold distance before the turning event , the negative turning event corresponding to a location along the trajectory where the vehicle could make a turn, but does not plan to make a turn; while the vehicle is operating in the autonomous driving mode: using the negative turning event to temporarily prevent activation of the turn signal ; and determining, based on a type of the turning event , whether to override the temporary prevention and to activate, by the one or more processors , the turn signal of the vehicle . using the negative turning event to temporarily prevent activation of the turn signal ; and determining, based on a type of the turning event , whether to override the temporary prevention and to activate, by the one or more processors , the turn signal of the vehicle .
Backflow preventer valve with a head piece , in which a pressure cylinder is arranged, which is connected to a rotatably but axially fixedly mounted spindle , via the rotation of which the pressure cylinder is displaceable in the head piece and which receives a non-return piston , which is displaceably arranged in a piston chamber of the pressure cylinder and which is provided at the end with a sealing arrangement, characterised in that a pressure compensation channel, in which a pressure relief valve assembly is arranged, is guided through the sealing arrangement.
A laminate having a surface, comprising: a polymer electrolyte membrane; and a reflective substrate removably adhered to the polymer electrolyte membrane, such that the polymer electrolyte membrane can be removed from the reflective substrate without any damage or irreversible deformation occurring to the polymer electrolyte membrane or the reflective substrate, wherein the reflective substrate comprises a metal substrate, said reflective substrate has a reflectivity greater than 6% at wavelengths from 400 nm to 1000 nm, as determined at an angle normal to the surface of the laminate using a reflectometer equipped with a multi-wavelength light source and a spectrometer. a polymer electrolyte membrane; and a reflective substrate removably adhered to the polymer electrolyte membrane, such that the polymer electrolyte membrane can be removed from the reflective substrate without any damage or irreversible deformation occurring to the polymer electrolyte membrane or the reflective substrate, wherein the reflective substrate comprises a metal substrate, said reflective substrate has a reflectivity greater than 6% at wavelengths from 400 nm to 1000 nm, as determined at an angle normal to the surface of the laminate using a reflectometer equipped with a multi-wavelength light source and a spectrometer.
Method for applying an advance degradation (DegAV) to the curative ignition of a first predetermined nominal value (Deg n) for a heat engine after detection of a first knock (Cl1, Cl2 , C15) during operation of the engine, the application of advance degradation (DegAV) to curative ignition being suspended until a second knock (C13) has been detected in a first time interval (T1s) predetermined starting with the detection of the first clicking sound (Cl1, C12, C15), comprising a step of initiating a first countdown of a first time interval (T1s) starting with the appearance of the first click (Cl1, C12, C15), the first countdown being reset to zero if no second click has been detected during the first time interval (T1s) or as soon as a second click (C13) has been detected, after the first countdown has been reset to zero, the next upcoming knock will become the new first knock (C12, C15), characterized in that , simultaneously with the start of the first countdown, a second countdown of a second time interval (T2s) less than the first interval (T1s) is started, this second countdown serving to limit in duration an advance degradation (DegAV) to the curative ignition of a second predetermined reduced value (Deg min) lower than the first predetermined nominal value (Deg n) implemented as soon as a third knock (C14) has been detected during the first time interval (T1s ) in force and not completed.