mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement method using a surface stress sensor, the surface stress sensor comprises a sensitive film comprising poly(2,6-diphenyl-p-phenylene oxide) represented by Formula , wherein n represents an integer of 1 or more, characterized in that the method comprises: coating, on the surface stress sensor, a solution in which a material containing poly(2,6-diphenyl-p-phenylene oxide) represented by Formula is dissolved in a solvent so that the sensitive film is formed; performing the measurement using the surface stress sensor, wherein: the measurement is performed without employing an operation of heating the sensitive film to desorb an adsorbed substance, a sample gas containing a component as a target to be measured and a purge gas are alternately and/or cyclically supplied to the surface stress sensor, and during supplying the sample gas containing a component as a target to be measured, poly(2,6-diphenyl-p-phenylene oxide) of Formula adsorbs said component from the sample gas, and, during supplying the purge gas, poly(2,6-diphenyl-p-phenylene oxide) of Formula desorbs said component; and optionally, after performing the measurement, raising a temperature of the sensitive film to a temperature from 200°C to 400°C so that an occluded component is purged. coating, on the surface stress sensor, a solution in which a material containing poly(2,6-diphenyl-p-phenylene oxide) represented by Formula is dissolved in a solvent so that the sensitive film is formed; performing the measurement using the surface stress sensor, wherein: the measurement is performed without employing an operation of heating the sensitive film to desorb an adsorbed substance, a sample gas containing a component as a target to be measured and a purge gas are alternately and/or cyclically supplied to the surface stress sensor, and during supplying the sample gas containing a component as a target to be measured, poly(2,6-diphenyl-p-phenylene oxide) of Formula adsorbs said component from the sample gas, and, during supplying the purge gas, poly(2,6-diphenyl-p-phenylene oxide) of Formula desorbs said component; and the measurement is performed without employing an operation of heating the sensitive film to desorb an adsorbed substance, a sample gas containing a component as a target to be measured and a purge gas are alternately and/or cyclically supplied to the surface stress sensor, and during supplying the sample gas containing a component as a target to be measured, poly(2,6-diphenyl-p-phenylene oxide) of Formula adsorbs said component from the sample gas, and, during supplying the purge gas, poly(2,6-diphenyl-p-phenylene oxide) of Formula desorbs said component; and optionally, after performing the measurement, raising a temperature of the sensitive film to a temperature from 200°C to 400°C so that an occluded component is purged.
A method of debugging a processor, the method comprising: receiving an input of a template file for each of a plurality of test types; for each particular test type from the plurality of test types: generating a first predetermined number of randomized subtests according to a respective template file of the particular test type, and compiling the first predetermined number of randomized subtests into a test binary for the particular test type; linking the test binary for each of plurality of test types to form a test library; randomly selecting a subset of test binaries from the test library; executing each of the selected subset of test binaries on a number of physical threads of the processor according to a control data structure for each test binary, wherein the executing includes randomly selecting particular randomized subtests from each test binary of the subset of test binaries and running each of the selected particular randomized subtests; detecting one or more errors in the executing; and redesigning the processor based on the one or more errors detected. receiving an input of a template file for each of a plurality of test types; for each particular test type from the plurality of test types: generating a first predetermined number of randomized subtests according to a respective template file of the particular test type, and compiling the first predetermined number of randomized subtests into a test binary for the particular test type; generating a first predetermined number of randomized subtests according to a respective template file of the particular test type, and compiling the first predetermined number of randomized subtests into a test binary for the particular test type; linking the test binary for each of plurality of test types to form a test library; randomly selecting a subset of test binaries from the test library; executing each of the selected subset of test binaries on a number of physical threads of the processor according to a control data structure for each test binary, wherein the executing includes randomly selecting particular randomized subtests from each test binary of the subset of test binaries and running each of the selected particular randomized subtests; detecting one or more errors in the executing; and redesigning the processor based on the one or more errors detected.
A method , performed by an apparatus , for wireless communication, comprising: identifying multiple beam pair links for communication with one or more base stations; determining a set of search candidates for each of the multiple beam pair links based at least in part on a set of search candidate tables, each of the multiple beam pair links corresponding to a respective set of search candidates such that at least two of the multiple beam pair links correspond to different numbers of search candidates; and monitoring each of the multiple beam pair links in accordance with the respective sets of search candidates. identifying multiple beam pair links for communication with one or more base stations; determining a set of search candidates for each of the multiple beam pair links based at least in part on a set of search candidate tables, each of the multiple beam pair links corresponding to a respective set of search candidates such that at least two of the multiple beam pair links correspond to different numbers of search candidates; and monitoring each of the multiple beam pair links in accordance with the respective sets of search candidates.
Monitoring device for monitoring a gas pressure in a gas chamber of a circuit breaker, the monitoring device comprising - a measuring device with a reference gas volume and a sensor unit for sensing a reference gas pressure (P) in the reference gas volume , characterized by - a pipeline , which connects the reference gas volume to the gas chamber , - wherein the pipeline has a pulsation damper for damping pulsations in the reference gas volume . - a measuring device with a reference gas volume and a sensor unit for sensing a reference gas pressure (P) in the reference gas volume , characterized by - a pipeline , which connects the reference gas volume to the gas chamber , - wherein the pipeline has a pulsation damper for damping pulsations in the reference gas volume .
A method in a wireless device for minimizing user plane interruption delay during a handover from dual connectivity with a master node, MN, and a secondary node, SN, to a target network node, the method comprising: operating in dual connectivity with the MN and the SN; receiving a reconfiguration instruction from the MN, the reconfiguration instruction comprising: a new configuration wherein the target network node for the handover is the SN; and an indication of a trigger used to switch to the new configuration; receiving the trigger from the SN; and switching to the new configuration. operating in dual connectivity with the MN and the SN; receiving a reconfiguration instruction from the MN, the reconfiguration instruction comprising: a new configuration wherein the target network node for the handover is the SN; and an indication of a trigger used to switch to the new configuration; a new configuration wherein the target network node for the handover is the SN; and an indication of a trigger used to switch to the new configuration; receiving the trigger from the SN; and switching to the new configuration.
A scroll-type fluid machine comprising: a fixed scroll that is provided with a lap portion having a spiral shape; an orbiting scroll that is provided with a lap portion having a spiral shape which forms a compression chamber between the lap portion of the fixed scroll and the lap portion ; a drive shaft that is connected to the orbiting scroll and rotates to cause the orbiting scroll to orbit; a cooling fan that is provided on a side of the drive shaft , the side being opposite to the orbiting scroll , to generate a cooling air; and a cooling air duct including a first cooling air passage that covers the entire cooling fan and is disposed along a direction perpendicular to the drive shaft , a second cooling air passage that extends in a direction of the drive shaft , a bent portion that connects the first cooling air passage to the second cooling air passage , and an introduction duct that is connected to the second cooling air passage to supply the cooling air to the fixed scroll and the orbiting scroll , characterized in that a part of an outer peripheral wall of the bent portion , the outer peripheral wall being distant from the drive shaft , is formed by a plane which intersects a plane perpendicular to the drive shaft at an obtuse angle. a fixed scroll that is provided with a lap portion having a spiral shape; an orbiting scroll that is provided with a lap portion having a spiral shape which forms a compression chamber between the lap portion of the fixed scroll and the lap portion ; a drive shaft that is connected to the orbiting scroll and rotates to cause the orbiting scroll to orbit; a cooling fan that is provided on a side of the drive shaft , the side being opposite to the orbiting scroll , to generate a cooling air; and a cooling air duct including a first cooling air passage that covers the entire cooling fan and is disposed along a direction perpendicular to the drive shaft , a second cooling air passage that extends in a direction of the drive shaft , a bent portion that connects the first cooling air passage to the second cooling air passage , and an introduction duct that is connected to the second cooling air passage to supply the cooling air to the fixed scroll and the orbiting scroll , characterized in that a part of an outer peripheral wall of the bent portion , the outer peripheral wall being distant from the drive shaft , is formed by a plane which intersects a plane perpendicular to the drive shaft at an obtuse angle.
An in-cell touch panel, comprising: a first substrate and a second substrate arranged opposite to each other, a pixel electrode layer disposed on one side of the second substrate facing the first substrate , and a touch detection chip , wherein the pixel electrode layer includes a plurality of pixel electrodes and self-capacitance electrodes insulated from each other; the pixel electrodes are arranged in an array; a pattern of each self-capacitance electrode is disposed at a gap between two adjacent pixel electrodes ; and the touch detection chip is configured to determine a touch position by detection of capacitance variation of the self-capacitance electrodes in a touch period.
A computer-implemented method for detecting if inspection images of optical-fiber connector endfaces are acquired on a same optical-fiber connector, the method comprising: receiving a first inspection image and a second inspection image; extracting a first rim profile from said first inspection image and a second rim profile from said second inspection image, the first and second rim profiles being each extracted from a portion of the first and second inspection images that corresponds to a circumferential area of an optical fiber within the first and second inspection images; and determining if the first and second inspection images are likely to have been acquired over the same optical-fiber connector at least from a comparison of the first and second rim profiles. receiving a first inspection image and a second inspection image; extracting a first rim profile from said first inspection image and a second rim profile from said second inspection image, the first and second rim profiles being each extracted from a portion of the first and second inspection images that corresponds to a circumferential area of an optical fiber within the first and second inspection images; and determining if the first and second inspection images are likely to have been acquired over the same optical-fiber connector at least from a comparison of the first and second rim profiles.
An electronic device , comprising: a housing having a sidewall; a speaker in the housing configured to emit sound; a fabric layer having openings configured to allow the sound to pass, wherein the fabric layer overlaps the sidewall; a flexible substrate layer with an array of light-emitting devices that is interposed between the fabric layer and the housing and is configured to emit light towards the housing ; and an acoustically transparent component-hiding layer interposed between the flexible substrate layer and the housing , wherein the acoustically transparent component-hiding layer is configured to reflect the light emitted by the array of light-emitting devices back through the flexible substrate layer away from the housing . a housing having a sidewall; a speaker in the housing configured to emit sound; a fabric layer having openings configured to allow the sound to pass, wherein the fabric layer overlaps the sidewall; a flexible substrate layer with an array of light-emitting devices that is interposed between the fabric layer and the housing and is configured to emit light towards the housing ; and an acoustically transparent component-hiding layer interposed between the flexible substrate layer and the housing , wherein the acoustically transparent component-hiding layer is configured to reflect the light emitted by the array of light-emitting devices back through the flexible substrate layer away from the housing .
A connection casing comprising a body with a substantially closed outer perimeter, an open (O1) top end and a substantially closed bottom , a space (M1) being formed within the connection casing , the bottom comprising at least one planar surface section having an outer surface and being provided with at least one lead-in , characterized in that at least one lead-in is formed as a combined cable and tube lead-in comprising a lead in element extending outwards from the outer surface of the planar surface section along an axial direction being perpendicular to the outer surface of the planar surface section , the lead-in element being formed as an integral part of the connection casing , the lead-in element comprising a collar extending axially outwards from the outer surface of the planar surface section and a flange extending axially outwards from the collar , the lead-in element forming a cable lead-in provided with strain relief positioned within the flange , an opening in the planar surface section extending through the planar surface section , the opening being enclosed by the lead in element , the opening forming a tube lead-in, wherein the lead-in element is arranged to be cut off from the planar surface section along a cut-off line (CL) passing through a bottom of the collar by cutting along the outer surface of the planar surface section in order to remove the lead-in element and thereby expose the tube lead-in. a lead in element extending outwards from the outer surface of the planar surface section along an axial direction being perpendicular to the outer surface of the planar surface section , the lead-in element being formed as an integral part of the connection casing , the lead-in element comprising a collar extending axially outwards from the outer surface of the planar surface section and a flange extending axially outwards from the collar , the lead-in element forming a cable lead-in provided with strain relief positioned within the flange , an opening in the planar surface section extending through the planar surface section , the opening being enclosed by the lead in element , the opening forming a tube lead-in, wherein the lead-in element is arranged to be cut off from the planar surface section along a cut-off line (CL) passing through a bottom of the collar by cutting along the outer surface of the planar surface section in order to remove the lead-in element and thereby expose the tube lead-in.
A vehicular seating suite configuration comprising: a plurality of vertically stacked seating suites configured to be positioned within a vehicle, each seating suite comprising: an elongated generally horizontal seating surface ; a generally vertical backrest portion adjacent to a proximal end of the elongated generally horizontal seating surface ; wherein the elongated generally horizontal seating surface and the generally vertical backrest portion are configured to accommodate a person in a sitting position; wherein the elongated generally horizontal seating surface is configured to accommodate a person in a lying position; characterized in that the vehicular seating suite configuration further comprises a telescopic ladder integrated into a lower seating suite and configured to provide access to an upper seating suite , the telescopic ladder including a support mechanism that provides an armrest adjacent to the generally vertical backrest portion of the upper seating suite when the telescopic ladder is retracted into the lower seating suite . an elongated generally horizontal seating surface ; a generally vertical backrest portion adjacent to a proximal end of the elongated generally horizontal seating surface ; wherein the elongated generally horizontal seating surface and the generally vertical backrest portion are configured to accommodate a person in a sitting position; wherein the elongated generally horizontal seating surface is configured to accommodate a person in a lying position;
A method for detecting hydrocarbons with an underwater vehicle equipped with measurement components comprising: deploying an underwater vehicle UV into the body of water; performing an operation stage that comprises: navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data , retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer. deploying an underwater vehicle UV into the body of water; performing an operation stage that comprises: navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data , retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer. navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data , retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer.
A process for preparing organopolysiloxane resins, where in a first continuous step in an upright circulation reactor, which, via a heating assembly on the ascending part of the tube reactor, regulates the temperature in the circulation reactor, organochlorosilanes are reacted with 0.10 to 0.75 mol of water per mole of hydrolyzable chlorine and with 0.3 to 1.0 mol of alcohol per mole of hydrolyzable chlorine, where the molar ratio of water to alcohol is 0.10 to 2.5, where the ratio of hydrous alcohol to silane mixture is regulated within the stated boundaries in such a way that the fraction of the alcohol phase in the product mixture of this first step is 0.1 - 50 wt%, where the temperature of the reaction medium is captured by the heating assembly to a temperature as regulated variable, compared with a fixed temperature in the range of 20 - 60°C as control variable, and is regulated with an accuracy of 5°C in the sense of an alignment to the control variable, and the amount of alcohol used in this first step is reduced to an extent such that the fraction of alcohol phase in the overall product mixture of the first step is 0.1 - 50 wt%, where the hydrous alcohol used here may comprise up to 31 wt% of dissolved HCl and up to 5 wt% of water-insoluble organic solvents, in a second step, to the reaction mixture obtained in the first step, water-insoluble organic solvent having a density of below 0.95 kg/l is added and water is metered in amounts of 1.5 to 5 mol of water per mole of Si component and, moreover, 0.1 to 0.5 mol of alcohol per mole of silicon component is added, and, after the end of the metered additions in the second step, the alcoholic HCl phase is separated off, and in a third step , to the siloxane phase of the second step, optionally water-insoluble organic solvent having a density of below 0.95 kg/l is added and water is metered in amounts of 5 to 200 mol of water per mole of Si component, and in a fourth step, after the end of the addition of water in the third step, the aqueous phase formed is separated off from the siloxane phase.