mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring telemetry data from a cloud-based application service, the method comprising: analyzing telemetry data for a plurality of operations for the cloud-based application service, wherein the analysis comprises comparing: a first time series comprising data associated with operations executed by an application hosted by the cloud-based service after incorporation of a software update in the cloud-based application service; and a second time series comprising data associated with operations executed by the application hosted by the cloud-based service prior to incorporation of the software update in the cloud-based application service; identifying , based on the analysis, an operational change in the cloud-based application service, wherein the operational change comprises an addition of an operation to an application; and dynamically configuring a telemetry monitor based on the operational change, wherein the configuring comprises: automatically defining, via application of a machine learning model, a baseline for the operational change; automatically defining, via application of another machine learning model, a threshold outside of the baseline for the operational change; and flagging potential issues associated with the operational change based on the threshold. a first time series comprising data associated with operations executed by an application hosted by the cloud-based service after incorporation of a software update in the cloud-based application service; and a second time series comprising data associated with operations executed by the application hosted by the cloud-based service prior to incorporation of the software update in the cloud-based application service; identifying , based on the analysis, an operational change in the cloud-based application service, wherein the operational change comprises an addition of an operation to an application; and dynamically configuring a telemetry monitor based on the operational change, wherein the configuring comprises: automatically defining, via application of a machine learning model, a baseline for the operational change; automatically defining, via application of another machine learning model, a threshold outside of the baseline for the operational change; and flagging potential issues associated with the operational change based on the threshold. automatically defining, via application of a machine learning model, a baseline for the operational change; automatically defining, via application of another machine learning model, a threshold outside of the baseline for the operational change; and flagging potential issues associated with the operational change based on the threshold.
Device for indicating the status of a gas burner when operated with a gas control apparatus with liquid-filled temperature controller characterised in that the device connected to an outlet of the gas control apparatus for the gas burner consists of a housing which has at least two interconnected chambers, which are separated gas-tight by a membrane connected on one side to an electrically conductive component , wherein the chamber A is connected to the gas outlet of the gas control apparatus , the membrane to which the gas pressure of the gas burner is applied through an opening in the chamber A when the gas valve is open, produces a stroke, by means of which the chamber B in which the side of the membrane having the connected electrically conductive component is positioned, closes a circuit via contact elements led outwards and suitably indicates the operating status, whereas when the gas valve is closed, the stroke of the membrane goes back to the starting position at its own spring constant, the circuit is opened and no operating status is indicated.
A pressurizing apparatus , comprising: a mounting base on which an target object is mounted; an upper mold for pressurizing the target object mounted on the mounting base from an upper side thereof; a heating lower mold that is a lower mold heated beforehand by heating means and is configured to heat the target object while pressurizing it in a state where the mounting base is sandwiched between the upper mold and the heating lower mold ; a cooling lower mold that is a lower mold cooled beforehand by cooling means and is configured to cool the target object while pressurizing it in a state where the mounting base is sandwiched between the upper mold and the cooling lower mold , and a control device for controlling the driving of the molds in such a way as to switch the lower mold contributing to the pressurization of the target object to the heating lower mold or the cooling lower mold according to the state of progress in pressurization processing for the target object , characterized by an intervening pad intervening between the upper mold and the target object , wherein the intervening pad includes a soft layer configured to flexibly deform according to the shape of the target object , and a heat insulating layer configured to intervene between the soft layer and the target object for thermally insulating between the target object and the soft layer . a mounting base on which an target object is mounted; an upper mold for pressurizing the target object mounted on the mounting base from an upper side thereof; a heating lower mold that is a lower mold heated beforehand by heating means and is configured to heat the target object while pressurizing it in a state where the mounting base is sandwiched between the upper mold and the heating lower mold ; a cooling lower mold that is a lower mold cooled beforehand by cooling means and is configured to cool the target object while pressurizing it in a state where the mounting base is sandwiched between the upper mold and the cooling lower mold , and a control device for controlling the driving of the molds in such a way as to switch the lower mold contributing to the pressurization of the target object to the heating lower mold or the cooling lower mold according to the state of progress in pressurization processing for the target object , characterized by an intervening pad intervening between the upper mold and the target object , wherein the intervening pad includes a soft layer configured to flexibly deform according to the shape of the target object , and a heat insulating layer configured to intervene between the soft layer and the target object for thermally insulating between the target object and the soft layer .
Device for the detection of substances present in biological or chemical samples which, in reactions taking place in parallel with at least one reagent , produce a spectrum or signal which is optically detectable and distinguishable for the respective substance, comprising: - a sample carrier containing at least two containers for receiving samples , - a camera configured to control the volume of the samples in a first step and to detect in a step the spectra or signals obtained by the reactions with the respective substance in at least two containers each comprising at least one reagent in a second step, and - an evaluation device which evaluates the samples by analysing the spectra or signals of at least two containers each comprising at least one reagent, wherein the camera , for controlling the volume of the samples , is rotatable or pivotable away from the containers by substantially 90 degrees in the direction of a boundary line between the sample to be placed in the containers and a first fluid both placed in a pipette . - a sample carrier containing at least two containers for receiving samples , - a camera configured to control the volume of the samples in a first step and to detect in a step the spectra or signals obtained by the reactions with the respective substance in at least two containers each comprising at least one reagent in a second step, and - an evaluation device which evaluates the samples by analysing the spectra or signals of at least two containers each comprising at least one reagent, wherein the camera , for controlling the volume of the samples , is rotatable or pivotable away from the containers by substantially 90 degrees in the direction of a boundary line between the sample to be placed in the containers and a first fluid both placed in a pipette .
A method for determining the operation of a metering device , which device is used to generate a specific single dose of an aerosol and the aerosol contains particles of an active ingredient, wherein the particles of the active ingredient are mixed with a carrier medium to form the single dose of the aerosol, wherein a duration (t) for producing the single dose is ascertained, characterized in that a laser triangulation measurement is carried out, during which a travel path (s) of at least one movable component of the metering device is measured and the duration for the travel path (s) is ascertained, the movement along the travel path being necessary for the generation of the single dose .
A non-fermented composition for use as a medicament for increasing the formation of butyric acid in the colon, said composition comprising at least one cereal based fraction selected from the group consisting of whole grain barley, malted barley and brewer's spent grain, and at least one isolated probiotic strain of Lactobacillus rhamnosus; characterised in that the use increases the formation of butyric acid in the colon compared to use of the same composition without the at least one isolated probiotic strain of Lactobacillus rhamnosus.
A photocatalyst-coated body comprising a substrate and a photocatalyst layer provided on the substrate, the photocatalyst layer comprising: photocatalyst particles being not less than 1 parts by mass and not more than 20 parts by mass, preferably, not less than 1 parts by mass and not more than 15 parts by mass, silica particles being not less than 30 parts by mass and not more than 98 parts by mass, and zirconia particles being not less than 1 parts by mass and not more than 50 parts by mass, preferably, not less than 5 parts by mass and not more than 50 parts by mass, wherein the total content of the photocatalyst particles, the silica particles and the zirconia particles is 100 parts by mass, wherein the zirconia particles are at least one kind of particles selected from the group consisting of crystalline zirconia particles that have an average crystallite diameter of 10 nm or less and amorphous zirconia particles wherein the content of the particulate components in the photocatalyst layer is not less than 85% by mass and not more than 100% by mass, wherein the number average particle diameter of the zirconia particles as determined by measuring the length of 100 randomly selected particles in a visual field at a magnification of 200,000 times under a scanning electron microscope is more than 5 nm and not more than 50 nm. photocatalyst particles being not less than 1 parts by mass and not more than 20 parts by mass, preferably, not less than 1 parts by mass and not more than 15 parts by mass, silica particles being not less than 30 parts by mass and not more than 98 parts by mass, and zirconia particles being not less than 1 parts by mass and not more than 50 parts by mass, preferably, not less than 5 parts by mass and not more than 50 parts by mass, wherein the total content of the photocatalyst particles, the silica particles and the zirconia particles is 100 parts by mass, wherein the zirconia particles are at least one kind of particles selected from the group consisting of crystalline zirconia particles that have an average crystallite diameter of 10 nm or less and amorphous zirconia particles wherein the content of the particulate components in the photocatalyst layer is not less than 85% by mass and not more than 100% by mass, wherein the number average particle diameter of the zirconia particles as determined by measuring the length of 100 randomly selected particles in a visual field at a magnification of 200,000 times under a scanning electron microscope is more than 5 nm and not more than 50 nm.
An acceleration measuring device having a support and a proof mass, connected to each other by at least two flexures allowing displacement of the proof mass relative to the support, the support defining a space for displacement of the proof mass, the device being configured so that the modulus of the gradient of the force-displacement curve of the proof mass decreases with increasing displacement, for at least the part of the force-displacement curve corresponding to a range of movement of the proof mass within the device, wherein, the resonant frequency of oscillation of the proof mass is determined at least in part by the orientation of the device relative to the direction of the force due to gravity, such that the proof mass is capable of oscillating with a resonant frequency of 10 Hz or less, characterized in that the proof mass has a mass of less than 0.1 grams, and in that the device is configured to allow the proof mass to oscillate substantially only in one plane, and wherein each flexure has a rest shape extending in a continuous arc defining a length direction of the flexure from the support to the proof mass, a width direction of the flexure is defined as a direction in the plane of oscillation of the proof mass and perpendicular to the length direction, and a depth direction of the flexure is defined as a direction perpendicular to the plane of oscillation of the proof mass and perpendicular to the length direction; and wherein at least one of (i), (ii) and (iii) applies: (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm. characterized in that the proof mass has a mass of less than 0.1 grams, and in that the device is configured to allow the proof mass to oscillate substantially only in one plane, and wherein each flexure has a rest shape extending in a continuous arc defining a length direction of the flexure from the support to the proof mass, a width direction of the flexure is defined as a direction in the plane of oscillation of the proof mass and perpendicular to the length direction, and a depth direction of the flexure is defined as a direction perpendicular to the plane of oscillation of the proof mass and perpendicular to the length direction; and wherein at least one of (i), (ii) and (iii) applies: (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm. (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm.
Hierarchical composite cast wear component comprising a reinforcement in the most exposed part to wear, the reinforcement comprising a three-dimensionally interconnected network of periodically alternating millimetric ceramic-metal composite granules with millimetric interstices, said ceramic-metal composite granules comprising at least 52 vol%, preferably at least 61 vol%, more preferably at least 70 vol% of micrometric particles of titanium carbide embedded in a first metal matrix, the ceramic-metal composite granules having a density of at least 4.8 g/cm 3 and a porosity of the granule of less than 2 vol%, the volume fraction of porosity of the granule embedded in the first metal matrix being measured according to ISO 13383-2:2012, the three-dimensionally interconnected network of ceramic-metal composite granules with its millimetric interstices being embedded in the second metal matrix, the embedded ceramic-metal composite granules having an average particle size d 50 between 0.5 and 10 mm, preferably 1 and 5 mm, the average particle size being measured by performing a photo-micrographic panorama view, such that there are at least 250 ceramic-metal granules across the field of view of the polished cross section of the sample, by stitching using a computer program and optical microscope wherein an appropriate thresholding allows a segmentation of the granules in grayscale image and background, said reinforcement comprising in average at least 23 vol%, more preferably at least 28 vol%, most preferably at least 30 vol% of titanium carbide, the first metal matrix being different from the second metal matrix, the second metal matrix comprising the ferrous cast alloy.
A game controller which is removably attachable to a main unit of a game device , the game controller comprising: a slide member configured for slidably and detachably engaging with a rail member of the main unit; and at least one of a first operation section or a light-emitting portion on a surface of the slide member, the surface being faced to the main unit when the game controller is attached to the main unit. a slide member configured for slidably and detachably engaging with a rail member of the main unit; and at least one of a first operation section or a light-emitting portion on a surface of the slide member, the surface being faced to the main unit when the game controller is attached to the main unit.
An active shielding device for integration into an integrated circuit, IC, chip, the active shield device comprising: a plurality of current sources (102-1, 102-2,...102-N configured to generate a plurality of currents (I 1 , I 2 ,...I N ); an analog wire shield unit connected to the current sources; a current to voltage converter connected to the analog wire shield unit and configured to generate a voltage in response to the currents that are generated by the current sources and flow through the analog wire shield unit, wherein the analog wire shield unit comprises a plurality of analog wire windings (228-1, 228-2... 228-N) that are connected between the current sources and the current to voltage converter; and a voltage comparator connected to the current to voltage converter and configured to compare the voltage that is generated by the current to voltage converters with a reference voltage to determine whether the plurality of analog wire windings within the analog wire shield unit are tampered with. a plurality of current sources (102-1, 102-2,...102-N configured to generate a plurality of currents (I 1 , I 2 ,...I N ); an analog wire shield unit connected to the current sources; a current to voltage converter connected to the analog wire shield unit and configured to generate a voltage in response to the currents that are generated by the current sources and flow through the analog wire shield unit, wherein the analog wire shield unit comprises a plurality of analog wire windings (228-1, 228-2... 228-N) that are connected between the current sources and the current to voltage converter; and a voltage comparator connected to the current to voltage converter and configured to compare the voltage that is generated by the current to voltage converters with a reference voltage to determine whether the plurality of analog wire windings within the analog wire shield unit are tampered with.
A negative electrode plate, comprising a negative electrode current collector and active material layers disposed on at least one surface of the negative electrode current collector, wherein the active material layers comprise a first active material layer and a second active material layer disposed on a surface of the first active material layer, wherein the first active material layer is arranged between the negative electrode current collector and the second active material layer, the first active material layer comprises a first active material, the second active material layer comprises a second active material, and the active material layers satisfy α × CW 2 ≤ CW 1 , wherein α is a relative factor of layer spacings, wherein α = d 2 d 1 and 1 ≤ α ≤ 1.12; d 1 is a layer spacing corresponding to a d002 peak of the first active material, in units of nm; d 2 is a layer spacing corresponding to a d002 peak of the second active material, in units of nm; CW 1 is mass per unit area of the first active material layer disposed on the negative electrode current collector, in units of g/m 2 ; and CW 2 is mass per unit area of the second active material layer disposed on the negative electrode current collector, in units of g/m 2 , wherein the layer spacing d1 corresponding to the d002 peak of the first active material is within a range of 0.335-0.3362 nm, and the layer spacing d2 corresponding to the d002 peak of the second active material is within a range of 0.3356-0.38 nm, and wherein the mass per unit area CW1 of the first active material layer disposed on the negative electrode current collector is within a range of 80-200 g/m2, and the mass per unit area CW2 of the second active material layer disposed on the negative electrode current collector is within a range of 10-110 g/m2, wherein the first active material is a natural graphite material or an artificial graphite material. α is a relative factor of layer spacings, wherein α = d 2 d 1 and 1 ≤ α ≤ 1.12; d 1 is a layer spacing corresponding to a d002 peak of the first active material, in units of nm; d 2 is a layer spacing corresponding to a d002 peak of the second active material, in units of nm; CW 1 is mass per unit area of the first active material layer disposed on the negative electrode current collector, in units of g/m 2 ; and CW 2 is mass per unit area of the second active material layer disposed on the negative electrode current collector, in units of g/m 2 , wherein the layer spacing d1 corresponding to the d002 peak of the first active material is within a range of 0.335-0.3362 nm, and the layer spacing d2 corresponding to the d002 peak of the second active material is within a range of 0.3356-0.38 nm, and wherein the mass per unit area CW1 of the first active material layer disposed on the negative electrode current collector is within a range of 80-200 g/m2, and the mass per unit area CW2 of the second active material layer disposed on the negative electrode current collector is within a range of 10-110 g/m2, wherein the first active material is a natural graphite material or an artificial graphite material.
A device, in particular for use in manufacturing an individualized bicycle seat, or for use as an adjustable bicycle seat itself, said device comprising: (a) a plurality of individually moving parts, the sum of said individually moving parts in at least two dimensions defining at least a two-dimensional top surface of a generic bicycle seat, and the individually moving parts being movable relative to one another in the x-, y- and z-directions to adjust the generic bicycle seat from a starting point to an adjusted final position, wherein compared to the starting point the adjusted final position embodies individual comfort adjustments to the individually moving parts made by or on behalf of a person who will be the user of said individualized bicycle seat; characterized by said device further comprising (b) a plurality of sensors connected to the plurality of individually moving parts, the plurality of sensors collectively detecting all adjustments made relative to said starting point to achieve said adjusted final position.
Method for the warping of a warp, in which a ribbon , which has a plurality of threads, is fed to a warping drum through a ribbon feed arrangement , wherein the ribbon is attached to the warping drum and wound onto the warping drum with a predetermined number of turns, wherein, after the predetermined number of turns has been reached, the ribbon is severed, and a first end and a second end of the ribbon are formed, and the threads of the ribbon are gathered together at at least one end , characterised in that the threads of the ribbon are gathered together at at least one end by a crimping operation with a crimping sleeve .