mhurhangee/ep-ind-claims huggingface dataset:
A method of analysing a skin-print provided on a first surface of an optically transparent substrate, the method comprising the steps of: retaining the optically transparent substrate bearing a skin-print in fluid communication with a reagent cartridge so as to form a fluid-tight flow path between the first surface of the optically transparent substrate and the reagent cartridge; exposing the skin-print on the first surface of the optically transparent substrate to one or more reagents from the reagent cartridge, said reagents being selected to bind with one or more metabolites present in the skin-print; transmitting electromagnetic radiation onto the skin-print through the optically transparent substrate using a radiation source (130, 135) to thereby produce an optical signal of said one or more reagents and/or said one or more metabolites, wherein the electromagnetic radiation comprises visible light, preferably white visible light to illuminate the skin-print; detecting a first optical image of the optical signal through the optically transparent substrate using a sensor whilst the skin-print is illuminated by the visible light. retaining the optically transparent substrate bearing a skin-print in fluid communication with a reagent cartridge so as to form a fluid-tight flow path between the first surface of the optically transparent substrate and the reagent cartridge; exposing the skin-print on the first surface of the optically transparent substrate to one or more reagents from the reagent cartridge, said reagents being selected to bind with one or more metabolites present in the skin-print; transmitting electromagnetic radiation onto the skin-print through the optically transparent substrate using a radiation source (130, 135) to thereby produce an optical signal of said one or more reagents and/or said one or more metabolites, wherein the electromagnetic radiation comprises visible light, preferably white visible light to illuminate the skin-print; detecting a first optical image of the optical signal through the optically transparent substrate using a sensor whilst the skin-print is illuminated by the visible light.
A system configured to detect UV-light-fluorescent indicia with a camera comprising: a camera flash configured to emit visible light; a conversion device mounted over the camera flash which is configured to convert the emitted visible light to UV light and to direct the UV light onto the indicia; and a sensor configured to capture a visible-light image of the indicia after the indicia is exposed to the UV light. a camera flash configured to emit visible light; a conversion device mounted over the camera flash which is configured to convert the emitted visible light to UV light and to direct the UV light onto the indicia; and a sensor configured to capture a visible-light image of the indicia after the indicia is exposed to the UV light.
A lockable lateral adjuster mechanism, the mechanism comprising: a base with a counter bore; a platform carried by the base with a channel in the platform opposite the base, and an aperture in the channel aligned with the counter bore in the base; a cam with an eccentric head and a stem, the eccentric head being pivotally disposed in the channel and the stem extending through the aperture in the channel and being pivotally disposed in the counter bore, the eccentric head being off-axis with respect to the stem and the platform being laterally displaceable with respect to the base as the cam pivots; and a countersunk interface between the eccentric head and the channel. a base with a counter bore; a platform carried by the base with a channel in the platform opposite the base, and an aperture in the channel aligned with the counter bore in the base; a cam with an eccentric head and a stem, the eccentric head being pivotally disposed in the channel and the stem extending through the aperture in the channel and being pivotally disposed in the counter bore, the eccentric head being off-axis with respect to the stem and the platform being laterally displaceable with respect to the base as the cam pivots; and a countersunk interface between the eccentric head and the channel.
A damping element formed as a bag (1, 1', 1") for acoustic damping in a noise barrier, comprising shredded plastic material, preferably shredded flakes, packed into the bag, wherein said bag has a surface wall enabling a mechanical constrainment of the shredded material, wherein the density of the packed shredded material inside the bag is in the range of 200-600 kg/m3, characterised in that said shredded material is a shredded fiber-reinforced composite material made of glass- or carbon-fibers embedded in or bounded to a polymer matrix material.
A surgical instrument holding device comprising: a first parallel link in which two first link portions each having one end in an axial direction as a first end portion are arranged in parallel with each other; a second parallel link in which two second link portions each having one end in an axial direction as a second end portion are arranged in parallel with each other; a wiring member disposed along the first parallel link and the second parallel link; and a connecting unit provided with two first link supporters by which the respective first end portions are rotatably supported, two second link supporters by which the respective second end portions are rotatably supported, characterized by a first wiring supporter configured to support the wiring member on a part between the two first link supporters, and a second wiring supporter configured to support the wiring member on a part between the two second link supporters. a first parallel link in which two first link portions each having one end in an axial direction as a first end portion are arranged in parallel with each other; a second parallel link in which two second link portions each having one end in an axial direction as a second end portion are arranged in parallel with each other; a wiring member disposed along the first parallel link and the second parallel link; and a connecting unit provided with two first link supporters by which the respective first end portions are rotatably supported, two second link supporters by which the respective second end portions are rotatably supported, characterized by a first wiring supporter configured to support the wiring member on a part between the two first link supporters, and a second wiring supporter configured to support the wiring member on a part between the two second link supporters. two first link supporters by which the respective first end portions are rotatably supported, two second link supporters by which the respective second end portions are rotatably supported, characterized by a first wiring supporter configured to support the wiring member on a part between the two first link supporters, and a second wiring supporter configured to support the wiring member on a part between the two second link supporters.
A phototherapy device comprising a first light source and a second light source wherein the first light source is configured to emit light having a first wavelength which is in the range of 600-900 nm, wherein the second light source is configured to emit light having a second wavelength which is at least one of in the range of 400-600 nm and in the range of 900-2500 nm, wherein at least a portion of the device is a patch which is formed for conforming to at least part of the body portion, and wherein the device further comprises a sensor configured to determine at least one of the melanin index and the lightness (L*) of the skin of the subject's body portion and a controller configured to operate at least the second light source as a function of at least one of the melanin index and the lightness (L*) of said skin and to operate the second light source prior to operating the first light source.
Method of initializing a remote reading device intended to be hooked up to a meter, characterized in that, the remote reading device and the meter each exhibiting a visible identifying marking (IC, IB), the following steps are implemented during the fitting of the remote reading device: - capturing a photograph of the meter and of the remote reading device so that the markings of one and the other are visible therein with the value displayed by the mechanical totalizer of the meter, - implementation of shape recognition processing on the photograph to extract therefrom information identifying the meter and the remote reading device (IC, IB), as well as the initialization value of the mechanical totalizer, - storage of these various items of information in a database. - capturing a photograph of the meter and of the remote reading device so that the markings of one and the other are visible therein with the value displayed by the mechanical totalizer of the meter, - implementation of shape recognition processing on the photograph to extract therefrom information identifying the meter and the remote reading device (IC, IB), as well as the initialization value of the mechanical totalizer, - storage of these various items of information in a database.
A process of making a salted spray-dried perfume microcapsule particle, wherein the process comprises the steps: (a) preparing an aqueous perfume microcapsule mixture comprising from 20wt% to 70wt% perfume microcapsules; (b) contacting sodium chloride to the aqueous perfume microcapsule mixture to form a salted aqueous perfume microcapsule mixture comprising from 2.0wt% to 10wt% said sodium chloride; and (c) spray-drying the salted aqueous perfume microcapsule mixture to form a salted spray-dried perfume microcapsule particle, wherein the salted spray-dried perfume microcapsule particle comprises from 4.0wt% to 20wt% said sodium chloride. (a) preparing an aqueous perfume microcapsule mixture comprising from 20wt% to 70wt% perfume microcapsules; (b) contacting sodium chloride to the aqueous perfume microcapsule mixture to form a salted aqueous perfume microcapsule mixture comprising from 2.0wt% to 10wt% said sodium chloride; and (c) spray-drying the salted aqueous perfume microcapsule mixture to form a salted spray-dried perfume microcapsule particle, wherein the salted spray-dried perfume microcapsule particle comprises from 4.0wt% to 20wt% said sodium chloride.
Method for detecting an impact of a vehicle by means of a measuring device rigidly connected to the vehicle, characterized by the following features: - with respect to a plurality of device coordinate axes (X, Y, Z) referred to the measuring device, an acceleration of the measuring device is respectively measured (11, 12, 13), - with respect to a plurality of vehicle coordinate axes (x, y, z) referred to the vehicle, an installation position angle (α, β, γ) of the measuring device is respectively calculated and/or measured (14, 15, 16), - by using the installation position angles (α, β, γ), a vehicle acceleration along the vehicle coordinate axes (x, y, z) is determined and an assessment of the accelerations is performed, - a level of determination of the installation position is determined by the device and used for a weighting of the accelerations, and - the impact is detected by using the assessment (18, Y) of the vehicle acceleration. - with respect to a plurality of device coordinate axes (X, Y, Z) referred to the measuring device, an acceleration of the measuring device is respectively measured (11, 12, 13), - with respect to a plurality of vehicle coordinate axes (x, y, z) referred to the vehicle, an installation position angle (α, β, γ) of the measuring device is respectively calculated and/or measured (14, 15, 16), - by using the installation position angles (α, β, γ), a vehicle acceleration along the vehicle coordinate axes (x, y, z) is determined and an assessment of the accelerations is performed, - a level of determination of the installation position is determined by the device and used for a weighting of the accelerations, and - the impact is detected by using the assessment (18, Y) of the vehicle acceleration.
A straddled vehicle comprising: an internal combustion engine; an exhaust pipe connected to the internal combustion engine; a silencer disposed rearward of the exhaust pipe and connected to the exhaust pipe; a fan disposed outward of the internal combustion engine in a vehicle width direction; a fan cover disposed outward of the fan in the vehicle width direction and having an opening (17a, 17b); a silencer cover disposed outward of the silencer in the vehicle width direction; an oxygen sensor including a sensor element disposed inside the exhaust pipe, a heater that heats the sensor element, and a cylindrical case located outside the exhaust pipe, the oxygen sensor being attached to the exhaust pipe; and a sensor cover integrally formed with the fan cover, located outward of the oxygen sensor in the vehicle width direction, overlapping at least a portion of the cylindrical case of the oxygen sensor in a vehicle side view, and extending outward in the vehicle width direction and rearward in a vehicle fore-and-aft direction, wherein the silencer cover has a front portion located outward of the oxygen sensor in the vehicle width direction and extending outward in the vehicle width direction and rearward in the vehicle fore-and-aft direction, and in a vehicle plan view, a distance (ΔA) between a rear end of the sensor cover and a front end of the front portion of the silencer cover in the vehicle fore-and-aft direction is smaller than a distance (ΔB) between a rear end of the fan cover and a front end of the silencer. an internal combustion engine; an exhaust pipe connected to the internal combustion engine; a silencer disposed rearward of the exhaust pipe and connected to the exhaust pipe; a fan disposed outward of the internal combustion engine in a vehicle width direction; a fan cover disposed outward of the fan in the vehicle width direction and having an opening (17a, 17b); a silencer cover disposed outward of the silencer in the vehicle width direction; an oxygen sensor including a sensor element disposed inside the exhaust pipe, a heater that heats the sensor element, and a cylindrical case located outside the exhaust pipe, the oxygen sensor being attached to the exhaust pipe; and a sensor cover integrally formed with the fan cover, located outward of the oxygen sensor in the vehicle width direction, overlapping at least a portion of the cylindrical case of the oxygen sensor in a vehicle side view, and extending outward in the vehicle width direction and rearward in a vehicle fore-and-aft direction, wherein the silencer cover has a front portion located outward of the oxygen sensor in the vehicle width direction and extending outward in the vehicle width direction and rearward in the vehicle fore-and-aft direction, and in a vehicle plan view, a distance (ΔA) between a rear end of the sensor cover and a front end of the front portion of the silencer cover in the vehicle fore-and-aft direction is smaller than a distance (ΔB) between a rear end of the fan cover and a front end of the silencer.
A preparation method for an olefin epoxidation catalyst, which comprises the following steps: loading an auxiliary metal salt onto a silica gel carrier to obtain an auxiliary metal salt modified silica gel carrier A, wherein the auxiliary metal salt is one or more of Ce(NO 3) 3, Pr(NO 3) 3, Tb(NO 3) 3 and La(NO 3) 3; preferably, using a impregnation method to load the auxiliary metal salt onto the silica gel carrier; carrying out a drying treatment for the A obtained in step; carrying out a chemical vapor deposition for the dried A using a titanium salt vapor, preferably TiCl 4 vapor to obtain a silica gel B on which the auxiliary metal salt and the titanium salt, preferably TiCl 4 were loaded; calcining the B obtained in step to obtain a silica gel C on which the auxiliary metal salt and Ti species are loaded; carrying out a water vapor washing for the C obtained in step to obtain a Ti-MeO-SiO 2 composite oxide; carrying out a vapor deposition for the Ti-MeO-SiO 2 composite oxide using an alkyl silicate vapor to obtain the Ti-MeO-SiO 2 composite oxide D having a silicon-containing compound loaded on the surface of the composite oxide; preferably, the alkyl silicate vapor is tetraethyl orthosilicate vapor; calcining the D obtained in step to obtain a Ti-MeO-SiO 2 composite oxide having a SiO 2 layer coated on the surface of the composite oxide, which is referred to as SiO 2 -Ti-MeO-SiO 2; carrying out a silylanization treatment for the SiO 2 -Ti-MeO-SiO 2 obtained in step; wherein "MeO" represents the oxide of the auxiliary metal. loading an auxiliary metal salt onto a silica gel carrier to obtain an auxiliary metal salt modified silica gel carrier A, wherein the auxiliary metal salt is one or more of Ce(NO 3) 3, Pr(NO 3) 3, Tb(NO 3) 3 and La(NO 3) 3; preferably, using a impregnation method to load the auxiliary metal salt onto the silica gel carrier; carrying out a drying treatment for the A obtained in step; carrying out a chemical vapor deposition for the dried A using a titanium salt vapor, preferably TiCl 4 vapor to obtain a silica gel B on which the auxiliary metal salt and the titanium salt, preferably TiCl 4 were loaded; calcining the B obtained in step to obtain a silica gel C on which the auxiliary metal salt and Ti species are loaded; carrying out a water vapor washing for the C obtained in step to obtain a Ti-MeO-SiO 2 composite oxide; carrying out a vapor deposition for the Ti-MeO-SiO 2 composite oxide using an alkyl silicate vapor to obtain the Ti-MeO-SiO 2 composite oxide D having a silicon-containing compound loaded on the surface of the composite oxide; preferably, the alkyl silicate vapor is tetraethyl orthosilicate vapor; calcining the D obtained in step to obtain a Ti-MeO-SiO 2 composite oxide having a SiO 2 layer coated on the surface of the composite oxide, which is referred to as SiO 2 -Ti-MeO-SiO 2; carrying out a silylanization treatment for the SiO 2 -Ti-MeO-SiO 2 obtained in step; wherein "MeO" represents the oxide of the auxiliary metal.
An electronic timepiece comprising: a solar cell that receives light and generates power; a detection circuit configured to detect an output value of the solar cell; a storage battery charged by power generated by the solar cell; a charging control circuit configured to connect and disconnect the solar cell and the storage battery; and a control unit configured to control the detection circuit and the charging control circuit, characterized in that: the control unit is configured to set a detection period in which the control unit detects the output value of the solar cell and receives an optical signal, and a charging period in which the storage battery can be charged, during a reception period for receiving a data signal of transmission data transmitted from a communication target, is configured to control the charging control circuit to disconnect the solar cell and the storage battery, and is configured to cause the detection circuit to detect the output value of the solar cell, during the detection period, and is configured to control the charging control circuit to connect the solar cell and the storage battery during the charging period. a solar cell that receives light and generates power; a detection circuit configured to detect an output value of the solar cell; a storage battery charged by power generated by the solar cell; a charging control circuit configured to connect and disconnect the solar cell and the storage battery; and a control unit configured to control the detection circuit and the charging control circuit, characterized in that: the control unit is configured to set a detection period in which the control unit detects the output value of the solar cell and receives an optical signal, and a charging period in which the storage battery can be charged, during a reception period for receiving a data signal of transmission data transmitted from a communication target, is configured to control the charging control circuit to disconnect the solar cell and the storage battery, and is configured to cause the detection circuit to detect the output value of the solar cell, during the detection period, and is configured to control the charging control circuit to connect the solar cell and the storage battery during the charging period. is configured to set a detection period in which the control unit detects the output value of the solar cell and receives an optical signal, and a charging period in which the storage battery can be charged, during a reception period for receiving a data signal of transmission data transmitted from a communication target, is configured to control the charging control circuit to disconnect the solar cell and the storage battery, and is configured to cause the detection circuit to detect the output value of the solar cell, during the detection period, and is configured to control the charging control circuit to connect the solar cell and the storage battery during the charging period.
An operation method of a storage controller which is configured to communicate with an external device including a submission queue and a completion queue, the method comprising: receiving a notification associated with a command from the external device, based on a first clock; fetching the command from the submission queue, based on a second clock; performing an operation corresponding to the fetched command, based on a third clock; writing completion information to the completion queue, based on a fourth clock; and transmitting an interrupt signal to the external device, based on a fifth clock, wherein each of the first clock to the fifth clock is selectively activated depending on each operation phase. receiving a notification associated with a command from the external device, based on a first clock; fetching the command from the submission queue, based on a second clock; performing an operation corresponding to the fetched command, based on a third clock; writing completion information to the completion queue, based on a fourth clock; and transmitting an interrupt signal to the external device, based on a fifth clock, wherein each of the first clock to the fifth clock is selectively activated depending on each operation phase.