mhurhangee/ep-ind-claims huggingface dataset:
A peelable-type copper foil provided with a carrier foil comprising a layer structure of a carrier foil, a releasing layer and a bulk copper layer, wherein metal element-containing particles are dispersively disposed between the releasing layer and the bulk copper layer, the metal element-containing particles are disposed to make an amount transferred on the surface of the bulk copper layer after releasing carrier foil 0 mg/m 2 < F ≤ 100 mg/m 2 and to make a coverage factor in a visual field of 5 micron-meters × 4 micron-meters 0% by area < A ≤ 34% by area, wherein the coverage factor is determined by observing a surface of the releasing layer on which the metal element-containing particles have been provided using a field emission scanning-electron microscope so as to provide a field emission scanning-electron microscope image, image-processing of the field emission scanning electron microscope image so as to provide a binarized image, and determining the coverage percentage of the metal element-containing particles on the surface area of the releasing layer from the binarized image as a coverage factor in % by area, a particle diameter of the metal element-containing particles is 1 nanometer to 250 nanometers, as measured in the images of a field emission scanning microscopic view, and the metal element-containing particles are nickel particles. wherein metal element-containing particles are dispersively disposed between the releasing layer and the bulk copper layer, the metal element-containing particles are disposed to make an amount transferred on the surface of the bulk copper layer after releasing carrier foil 0 mg/m 2 < F ≤ 100 mg/m 2 and to make a coverage factor in a visual field of 5 micron-meters × 4 micron-meters 0% by area < A ≤ 34% by area, wherein the coverage factor is determined by observing a surface of the releasing layer on which the metal element-containing particles have been provided using a field emission scanning-electron microscope so as to provide a field emission scanning-electron microscope image, image-processing of the field emission scanning electron microscope image so as to provide a binarized image, and determining the coverage percentage of the metal element-containing particles on the surface area of the releasing layer from the binarized image as a coverage factor in % by area, a particle diameter of the metal element-containing particles is 1 nanometer to 250 nanometers, as measured in the images of a field emission scanning microscopic view, and the metal element-containing particles are nickel particles.
A method for the diagnosis of sepsis, wherein the method comprises the following steps: a) providing a biological sample; b) measuring levels of expression of CEACAM1, ZDHHC19, C9orf95, GNA15, BATF, C3AR1, KIAA1370, TGFBI, MTCH1, RPGRIP1, and HLA-DPB1 biomarkers in the biological sample; and c) analyzing the levels of expression of each biomarker in conjunction with respective reference value ranges for the biomarkers, wherein increased levels of expression of the CEACAM1, ZDHHC19, C9orf95, GNA15, BATF, and C3AR1 biomarkers and decreased levels of expression of the KIAA1370, TGFBI, MTCH1, RPGRIP1, and HLA-DPB1 biomarkers compared to the reference value ranges for the biomarkers for a non-infected control subject indicate that a subject has sepsis. a) providing a biological sample; b) measuring levels of expression of CEACAM1, ZDHHC19, C9orf95, GNA15, BATF, C3AR1, KIAA1370, TGFBI, MTCH1, RPGRIP1, and HLA-DPB1 biomarkers in the biological sample; and c) analyzing the levels of expression of each biomarker in conjunction with respective reference value ranges for the biomarkers, wherein increased levels of expression of the CEACAM1, ZDHHC19, C9orf95, GNA15, BATF, and C3AR1 biomarkers and decreased levels of expression of the KIAA1370, TGFBI, MTCH1, RPGRIP1, and HLA-DPB1 biomarkers compared to the reference value ranges for the biomarkers for a non-infected control subject indicate that a subject has sepsis.
An optical or magnetic scale for taking linear measurements, comprising a scale-holder integral with a fixed or moving part of a machine, and a scale-grating support (2, 2v) housed inside said scale-holder and scanned by a transducer, wherein the transducer slides along the scale-holder and is integral with said moving or fixed part of said machine, the scale-holder and the scale-grating support (2, 2v) being respectively fixed to the machine and to the scale-holder at a single fixed position forming their respective FEP, and said FEP being independently selectable among several predefined positions (6, 9), characterized in that said scale-holder and said scale grating support (2, 2v) are furthermore fastened, to the machine and to the scale-holder respectively, at one or more additional free longitudinal slipping positions.
A mobile device (105; 205; 305; 405) comprising: a plurality of applications (108-114; 208-214; 308-314; 408-414) configured to handle auto-identification data, a communication interface, a reader circuit (104; 204; 304; 404) configured to implement at least one auto-identification protocol, a processor configured to implement operating system instructions, the operating system instructions configured to cause the processor to receive context data, characterized in that the context data includes a list of the plurality of applications (108-114; 208-214; 308-314; 408-414) stored on the mobile device (105; 205; 305; 405), receive auto-identification data from the reader circuit (104; 204; 304; 404), send at least the auto-identification data and the context data to a server via the communication interface, receive one of the plurality of storage formats via the communication interface that was selected based on the auto-identification data and the context data, and identify and launch one of the plurality of applications based on the received storage format. a plurality of applications (108-114; 208-214; 308-314; 408-414) configured to handle auto-identification data, a communication interface, a reader circuit (104; 204; 304; 404) configured to implement at least one auto-identification protocol, a processor configured to implement operating system instructions, the operating system instructions configured to cause the processor to receive context data, characterized in that the context data includes a list of the plurality of applications (108-114; 208-214; 308-314; 408-414) stored on the mobile device (105; 205; 305; 405), receive auto-identification data from the reader circuit (104; 204; 304; 404), send at least the auto-identification data and the context data to a server via the communication interface, receive one of the plurality of storage formats via the communication interface that was selected based on the auto-identification data and the context data, and identify and launch one of the plurality of applications based on the received storage format.
A spreader structure for a ring seal for sealing an annular gap, comprising a radially inner first component with an inner contact surface, a radially outer second component with an outer contact surface, and a first spreading mechanism formed between these two components (2, 3) that comprises a first spreading bevel formed on one of the two components (2, 3), and a first spreading element formed on the other component (2, 3), that can be moved along the first spreading bevel, wherein the two components (2, 3) can be displaced in relation to one another in the axial direction of the spreader structure from an assembly state to a spreading state, by means of which the first spreading element is moved from a first section of the first spreading bevel to a second section of the spreading bevel, and enlarging a radial spacing between the inner contact surface and the outer contact surface, characterized in that the spreader structure has a second spreading mechanism formed between these two components (2, 3), the second spreading mechanism comprises a second spreading bevel formed on one of the two components (2, 3) and a second spreading element formed on the other component (2, 3) that can move along the second spreading bevel and the two spreading mechanisms (6, 11) are offset to one another in the axial direction of the spreader structure. comprising a radially inner first component with an inner contact surface, a radially outer second component with an outer contact surface, and a first spreading mechanism formed between these two components (2, 3) that comprises a first spreading bevel formed on one of the two components (2, 3), and a first spreading element formed on the other component (2, 3), that can be moved along the first spreading bevel, wherein the two components (2, 3) can be displaced in relation to one another in the axial direction of the spreader structure from an assembly state to a spreading state, by means of which the first spreading element is moved from a first section of the first spreading bevel to a second section of the spreading bevel, and enlarging a radial spacing between the inner contact surface and the outer contact surface, characterized in that the spreader structure has a second spreading mechanism formed between these two components (2, 3), the second spreading mechanism comprises a second spreading bevel formed on one of the two components (2, 3) and a second spreading element formed on the other component (2, 3) that can move along the second spreading bevel and the two spreading mechanisms (6, 11) are offset to one another in the axial direction of the spreader structure.
An apparatus for determining a calibration parameter for a first blood pressure, BP, measurement device, the apparatus comprising: a control unit that is to be coupled to a first BP measurement device that is for obtaining physiological characteristic measurements of a physiological characteristic of a subject and for determining a blood pressure measurement of the subject from the physiological characteristic measurements, a second BP measurement device that is for obtaining measurements of the blood pressure of the subject and a ventilator that is for providing a controlled flow of gas to the subject, wherein the control unit is configured to: obtain a first physiological characteristic measurement of the subject using the first BP measurement device; control the second BP measurement device to obtain a first BP measurement of the subject; control the ventilator to change one or more properties of the flow of gas to the subject, and thereby change the BP of the subject; analyze a signal from the first BP measurement device to determine when the BP is stable following the change of the one or more properties of the flow of gas; once the BP is determined to be stable following the change of the one or more properties of the flow of gas, obtain a second physiological characteristic measurement of the subject using the first BP measurement device; once the BP is determined to be stable following the change of the one or more properties of the flow of gas, control the second BP measurement device to obtain a second BP measurement of the subject; and determine a calibration parameter for determining BP measurements from physiological characteristic measurements obtained by the first blood pressure measurement device from an analysis of the first physiological characteristic measurement, the second physiological characteristic measurement, the first BP measurement and the second BP measurement. obtain a first physiological characteristic measurement of the subject using the first BP measurement device; control the second BP measurement device to obtain a first BP measurement of the subject; control the ventilator to change one or more properties of the flow of gas to the subject, and thereby change the BP of the subject; analyze a signal from the first BP measurement device to determine when the BP is stable following the change of the one or more properties of the flow of gas; once the BP is determined to be stable following the change of the one or more properties of the flow of gas, obtain a second physiological characteristic measurement of the subject using the first BP measurement device; once the BP is determined to be stable following the change of the one or more properties of the flow of gas, control the second BP measurement device to obtain a second BP measurement of the subject; and determine a calibration parameter for determining BP measurements from physiological characteristic measurements obtained by the first blood pressure measurement device from an analysis of the first physiological characteristic measurement, the second physiological characteristic measurement, the first BP measurement and the second BP measurement.
A method of controlling a direction indicator using a processor comprising controlling the direction indicator (i) to start blinking in response to an operation of a driver of a subject vehicle and (ii) to automatically turn off blinking after a blinking time; the method characterized by further comprising: determining whether an automated or autonomous lane change function is valid or invalid; wherein the automated or autonomous lane change function is a function of changing in an automated or autonomous manner from a lane in which the subject vehicle is traveling to another lane; the blinking time of the direction indicator is a first blinking time when it is determined that the automated or autonomous lane change function is invalid; and the blinking time of the direction indicator is a second blinking time longer than the first blinking time when it is determined that the automated or autonomous lane change function is valid (S107, S112). determining whether an automated or autonomous lane change function is valid or invalid; wherein the automated or autonomous lane change function is a function of changing in an automated or autonomous manner from a lane in which the subject vehicle is traveling to another lane; the blinking time of the direction indicator is a first blinking time when it is determined that the automated or autonomous lane change function is invalid; and the blinking time of the direction indicator is a second blinking time longer than the first blinking time when it is determined that the automated or autonomous lane change function is valid (S107, S112).
A method of assessing the functioning of an EGR cooler of an EGR system in an internal combustion engine, wherein said EGR cooler can be selectively operated in a first and a second operating condition; and wherein said engine comprises at least one cylinder equipped with a pressure sensor; characterised in that, the assessment of the functioning of said EGR cooler is based on the variation of a combustion characteristic value depending on cylinder pressure, between the first and the second operating conditions of said EGR cooler.
Catalyst components comprising Mg, Ti, and halogen atoms, and characterized in that (a) the Ti atoms are present in an amount higher than 4% based on the total weight of the said catalyst component, (b) the amount of Mg and Ti atoms is such that the Ti/Mg molar ratio is lower than 1 and (c) by a X-ray diffraction spectrum, in which, in the range of 2θ diffraction angles between 47.0° and 52.0°, at least two diffraction peaks are present at diffraction angles 2θ of 48.0 ± 0.2°, and 50.2 ± 0.2°.
A saddle-ride-type vehicle comprising: a vehicle body frame; an engine which is mounted on the vehicle body frame; a front wheel and a rear wheel which are arranged in front of and behind the engine respectively; a seat which is arranged between the front wheel and the rear wheel and on which a rider sits; a box-shaped air cleaner which is mounted on the vehicle body frame, filtrates air taken through an air intake port by an element, and supplies the air filtrated by the element into the engine through a connecting tube; and a body cover which covers the outside of the air cleaner, characterized in that an elastic member is sandwiched between a wall of the air cleaner and the body cover, the rear wheel is arranged behind and below the air cleaner, a wheel house which covers the rear wheel is constituted of a rear lower surface of the air cleaner, a rear fender which extends rearwardly in the longitudinal direction of the vehicle contiguously with the rear lower surface of the air cleaner, and inner surfaces (45L, 45R) of the left and right body covers in the vehicle widthwise direction which are arranged outside the rear lower surface of the air cleaner and the rear fender in the vehicle widthwise direction, the wheel house preventing water and mud splashed by the rear wheel from being scattered upwardly, and a wall member (91L, 91R) which partitions the wheel house and the elastic member from each other is mounted on the body cover.
A retroreflective article, comprising: a retroreflective layer including a first major surface that is structured and an opposed second major surface; and a low refractive index material (420, 520, 804) adjacent to the structured major surface that covers portions of the structured major surface but does not cover and leaves exposed other portions of the structured major surface, such that it supports total internal reflection or enhanced internal reflection at the structured major surface; wherein the low refractive index material includes a plurality of voids and has an effective index of refraction that is less than 1.3. a retroreflective layer including a first major surface that is structured and an opposed second major surface; and a low refractive index material (420, 520, 804) adjacent to the structured major surface that covers portions of the structured major surface but does not cover and leaves exposed other portions of the structured major surface, such that it supports total internal reflection or enhanced internal reflection at the structured major surface; wherein the low refractive index material includes a plurality of voids and has an effective index of refraction that is less than 1.3.
Aerosol product diffuser assembly for a pressurized bottle, comprising: - a control lever provided with a planar body making it possible to control the diffusion of the aerosol liquid; - a diffuser block comprising an annular casing inside which a cam actuator is mounted axially mobile between a storage position of the aerosol and a diffusion position of the aerosol, said cam actuator comprising: - (i) a cam follower plate, also axially mobile and guided by guide studs fixed to the casing and engaging with corresponding notches in the cam follower plate; - (ii) an aerosol bottle nozzle housing, arranged on the cam follower plate and suitable for receiving the nozzle of an aerosol bottle; - (iii) a duct and a diffuser tip, connected to the nozzle housing and enabling the liquid to diffuse to a discharge point of the aerosol liquid; - the control lever being pivotably mounted on the annular casing; - the cam actuator being able to be pushed axially towards the aerosol bottle by at least one pivoting cam, mounted on the planar body of the control lever; characterized in that: - the cam actuator is pushed axially away from the aerosol bottle by at least one elastic fastening tab elastically connecting the cam actuator to the annular casing; - the cam actuator is formed integrally with the annular casing, thus forming a one-piece diffuser block. - a control lever provided with a planar body making it possible to control the diffusion of the aerosol liquid; - a diffuser block comprising an annular casing inside which a cam actuator is mounted axially mobile between a storage position of the aerosol and a diffusion position of the aerosol, said cam actuator comprising: - (i) a cam follower plate, also axially mobile and guided by guide studs fixed to the casing and engaging with corresponding notches in the cam follower plate; - (ii) an aerosol bottle nozzle housing, arranged on the cam follower plate and suitable for receiving the nozzle of an aerosol bottle; - (iii) a duct and a diffuser tip, connected to the nozzle housing and enabling the liquid to diffuse to a discharge point of the aerosol liquid; - (i) a cam follower plate, also axially mobile and guided by guide studs fixed to the casing and engaging with corresponding notches in the cam follower plate; - (ii) an aerosol bottle nozzle housing, arranged on the cam follower plate and suitable for receiving the nozzle of an aerosol bottle; - (iii) a duct and a diffuser tip, connected to the nozzle housing and enabling the liquid to diffuse to a discharge point of the aerosol liquid; - the control lever being pivotably mounted on the annular casing; - the cam actuator being able to be pushed axially towards the aerosol bottle by at least one pivoting cam, mounted on the planar body of the control lever; - the cam actuator is pushed axially away from the aerosol bottle by at least one elastic fastening tab elastically connecting the cam actuator to the annular casing; - the cam actuator is formed integrally with the annular casing, thus forming a one-piece diffuser block.
A method of detecting tire mold bladder leakage, comprising: placing an uncured tire into a mold; inflating a bladder within the mold, wherein the bladder has a fluid within the bladder; applying sufficient heat and pressure to the uncured tire to at least partially cure the tire when the uncured tire is in the mold; opening the mold; and electronically smelling by an electronic nose the at least partially cured tire after the step of opening the mold, wherein the step of electronically smelling by the electronic nose is performed in order to determine whether the bladder is leaking the fluid. placing an uncured tire into a mold; inflating a bladder within the mold, wherein the bladder has a fluid within the bladder; applying sufficient heat and pressure to the uncured tire to at least partially cure the tire when the uncured tire is in the mold; opening the mold; and electronically smelling by an electronic nose the at least partially cured tire after the step of opening the mold, wherein the step of electronically smelling by the electronic nose is performed in order to determine whether the bladder is leaking the fluid.
A video analysis subsystem for use in a patient monitoring system for monitoring a patient in a bed, the video analysis subsystem comprising: means for receiving video images (V1, V2) of the patient captured by a video camera (12, 14); means for receiving sensor signals (S1, S2, S3) obtained from a set of sensors (32a, 34a, 36a, 38a) associated with pieces of equipment (32, 34, 36, 38) located in the vicinity of the bed for detecting interaction by the patient with said pieces of equipment; said video analysis subsystem being configured to determine and track the position of body parts of the patient from the video images (V1, V2) and to use the sensor signals (S1, S2, S3) in said determining and tracking of the position of the body parts of the patient from the images (V1,V2). means for receiving video images (V1, V2) of the patient captured by a video camera (12, 14); means for receiving sensor signals (S1, S2, S3) obtained from a set of sensors (32a, 34a, 36a, 38a) associated with pieces of equipment (32, 34, 36, 38) located in the vicinity of the bed for detecting interaction by the patient with said pieces of equipment; said video analysis subsystem being configured to determine and track the position of body parts of the patient from the video images (V1, V2) and to use the sensor signals (S1, S2, S3) in said determining and tracking of the position of the body parts of the patient from the images (V1,V2).