mhurhangee/ep-ind-claims huggingface dataset:
An on-press development type lithographic printing plate precursor comprising: an aluminum support; and an image-recording layer on the aluminum support, wherein the image-recording layer contains an infrared absorber, a polymerization initiator, a polymerizable compound, the polymerizable compound includes a polymerizable compound having 7 or more functional groups; wherein the functional groups are ethylenically unsaturated bonds; and an addition polymerization-type resin having a hydrophilic structure, characterized in that a water contact angle on the image-recording layer side of the aluminum support that is determined by an airborne water droplet method is 110° or less at 25 °C after 0.2 seconds, and wherein the on-press development type lithographic printing plate precursor further comprises a water-soluble overcoat layer on the image-recording layer, wherein the water-soluble overcoat layer contains a hydrophobic polymer, wherein the hydrophobic polymer is a polymer that dissolves less than 5 g or does not dissolve in 100 g of pure water at 125 °C; and wherein the hydrophobic polymer includes a polyvinylidene chloride resin or a styrene acrylic resin. an aluminum support; and an image-recording layer on the aluminum support, wherein the image-recording layer contains an infrared absorber, a polymerization initiator, a polymerizable compound, the polymerizable compound includes a polymerizable compound having 7 or more functional groups; wherein the functional groups are ethylenically unsaturated bonds; and an addition polymerization-type resin having a hydrophilic structure, characterized in that a water contact angle on the image-recording layer side of the aluminum support that is determined by an airborne water droplet method is 110° or less at 25 °C after 0.2 seconds, and wherein the on-press development type lithographic printing plate precursor further comprises a water-soluble overcoat layer on the image-recording layer, wherein the water-soluble overcoat layer contains a hydrophobic polymer, wherein the hydrophobic polymer is a polymer that dissolves less than 5 g or does not dissolve in 100 g of pure water at 125 °C; and wherein the hydrophobic polymer includes a polyvinylidene chloride resin or a styrene acrylic resin.
A wireless IC device (101, 102) comprising: a substrate including a first principal surface and a second principal surface that faces the first principal surface; a resin member covering at least the first principal surface of the substrate; an RFIC element mounted on the first principal surface of the substrate; and a coil antenna connected to the RFIC element, wherein the coil antenna includes a winding axis parallel to the first principal surface and the second principal surface of the substrate, and when viewed in a direction of winding axis, the coil antenna has a rectangular or substantially rectangular shape in which a portion of one side is provided in contact with the substrate, and the other three sides are provided in contact with the resin member, characterized in that opening surfaces of the coil antenna overlaps the RFIC element, wherein the wireless IC device further comprises two interlayer conductors (11A, 12A) disposed on a current root connecting the coil antenna and the RFIC element, the two interlayer conductors (11A, 12A) connect the first principal surface and the second principal surface of the substrate. a substrate including a first principal surface and a second principal surface that faces the first principal surface; a resin member covering at least the first principal surface of the substrate; an RFIC element mounted on the first principal surface of the substrate; and a coil antenna connected to the RFIC element, wherein the coil antenna includes a winding axis parallel to the first principal surface and the second principal surface of the substrate, and when viewed in a direction of winding axis, the coil antenna has a rectangular or substantially rectangular shape in which a portion of one side is provided in contact with the substrate, and the other three sides are provided in contact with the resin member, characterized in that opening surfaces of the coil antenna overlaps the RFIC element, wherein the wireless IC device further comprises two interlayer conductors (11A, 12A) disposed on a current root connecting the coil antenna and the RFIC element, the two interlayer conductors (11A, 12A) connect the first principal surface and the second principal surface of the substrate.
An electronic apparatus comprising: a microphone configured to receive an audio signal; a fingerprint sensor configured to detect a fingerprint; and a processor configured to: detect frictional sound from the audio signal; determine a frictional property by analyzing a characteristic of the detected frictional sound; and execute a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range. a microphone configured to receive an audio signal; a fingerprint sensor configured to detect a fingerprint; and a processor configured to: detect frictional sound from the audio signal; determine a frictional property by analyzing a characteristic of the detected frictional sound; and execute a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range. detect frictional sound from the audio signal; determine a frictional property by analyzing a characteristic of the detected frictional sound; and execute a control command corresponding to a combination of the detected fingerprint and the frictional property if it is determined that the frictional sound input and the fingerprint input are received within a reference time range.
Battery comprising a plurality of battery cells connected in series between a positive terminal and negative terminal and a plurality of cell voltage detection units (20-1,..., 20-n), which have a plurality of voltage measurement inputs connected in each case to a group of battery cells (10-1,..., 10-n) and are designed to determine cell voltages of the battery cells connected to the respective cell voltage detection unit (20-1,..., 20-n), wherein the cell voltage detection units (20-1,..., 20-n) are connected to one another by a communications bus and are moreover designed to communicate the determined cell voltages via the communications bus to a microcontroller, which is DC-decoupled from the cell voltage detection units (20-1,..., 20-n) by an electrical isolation apparatus, characterized in that the battery has a resistor for current measurement which is arranged in the current path of the battery and connected in series with the battery cells, wherein at least one first connection of the resistor is connected to a selected voltage measurement input of one of the cell voltage detection units (20-1,...,20-n), and the battery has an amplifier, which is connected between the resistor and the selected voltage measurement input of said one of the cell voltage detection units (20-1,..., 20-n) and is designed to amplify a voltage present across the resistor, wherein a gain factor of the amplifier is predetermined such that a maximum permissible current of the battery effects an output voltage of the amplifier, which is lower than a maximum permissible input voltage of the voltage measurement inputs of said one cell voltage detection unit (20-n).
A rectangular glass substrate being at least 6 mm thick and having a front surface, a back surface, four side surfaces, and eight chamfer surfaces defined between the front surface and the side surfaces and between the back surface and the side surfaces, wherein along an edge line between the front surface and the chamfer surfaces disposed adjacent thereto, the substrate includes a first curved surface having an average gradient of not more than 25 % in a range from the front surface to a position 50 μm inside the front surface, and along an edge line between at least one of the four side surfaces and the chamfer surfaces disposed adjacent to the front surface, the substrate includes a second curved surface having an average gradient of at least 30 % in a range from the at least one side surface to a position 50 μm inside the at least one side surface. along an edge line between the front surface and the chamfer surfaces disposed adjacent thereto, the substrate includes a first curved surface having an average gradient of not more than 25 % in a range from the front surface to a position 50 μm inside the front surface, and along an edge line between at least one of the four side surfaces and the chamfer surfaces disposed adjacent to the front surface, the substrate includes a second curved surface having an average gradient of at least 30 % in a range from the at least one side surface to a position 50 μm inside the at least one side surface.
A process for straightening hair comprising: coating keratin fibers with a composition comprising at least 5 wt. % of ethylene carbonate; and contacting the coated keratin fibers with a flat iron having a surface temperature of at least 200 °C for sufficient time to modify the keratin fibers, wherein said composition is free of sulfites. coating keratin fibers with a composition comprising at least 5 wt. % of ethylene carbonate; and contacting the coated keratin fibers with a flat iron having a surface temperature of at least 200 °C for sufficient time to modify the keratin fibers, wherein said composition is free of sulfites.
A radiation monitor (M1 - M4) comprising: a radiation Light Emitting Element (10, 10c) that contains a rare earth element and that emits light of a plurality of wavelengths caused by incident radiation; an optical fiber that is connected to the radiation Light Emitting Element (10, 10c) and that transmits the light emitted from the radiation Light Emitting Element (10, 10c); an electrical pulse converter that is connected to the optical fiber and that converts the transmitted light to electrical pulses at each wavelength; and an electrical pulse detector that is connected to the electrical pulse converter and that measures the counting rate of electrical pulses at each wavelength using the electrical pulses sent out from the electrical pulse converter; characterized by an analyzer (50, 51) that is connected to the electrical pulse detector and that computes the dosage rate of radiation and the temperature of the radiation Light Emitting Element (10, 10c) by collating the counting rate of electrical pulses measured at each wavelength and the relationship of the counting rate of photons to the temperature of the radiation Light Emitting Element (10, 10c) and the dosage rate of radiation stored in a database in advance. a radiation Light Emitting Element (10, 10c) that contains a rare earth element and that emits light of a plurality of wavelengths caused by incident radiation; an optical fiber that is connected to the radiation Light Emitting Element (10, 10c) and that transmits the light emitted from the radiation Light Emitting Element (10, 10c); an electrical pulse converter that is connected to the optical fiber and that converts the transmitted light to electrical pulses at each wavelength; and an electrical pulse detector that is connected to the electrical pulse converter and that measures the counting rate of electrical pulses at each wavelength using the electrical pulses sent out from the electrical pulse converter; characterized by an analyzer (50, 51) that is connected to the electrical pulse detector and that computes the dosage rate of radiation and the temperature of the radiation Light Emitting Element (10, 10c) by collating the counting rate of electrical pulses measured at each wavelength and the relationship of the counting rate of photons to the temperature of the radiation Light Emitting Element (10, 10c) and the dosage rate of radiation stored in a database in advance.
Method of forming an image of a vitrified sample, the method comprising: • providing an aqueous solution comprising sample material, • spraying droplets of the aqueous solution on a surface, the surface on which the solution is sprayed having a cryogenic temperature, more specifically a cryogenic temperature below 165 K, as a result of which the aqueous solution cools fast enough to solidify to form a vitrified sample, and • forming an image of the vitrified sample in an evacuated sample chamber of a charged particle microscope, • characterized in that the droplets are sprayed on the surface while in the evacuated sample chamber of the charged particle microscope, as a result of which the vitrified sample is formed in situ on the surface at the moment the droplets hit the surface. • providing an aqueous solution comprising sample material, • spraying droplets of the aqueous solution on a surface, the surface on which the solution is sprayed having a cryogenic temperature, more specifically a cryogenic temperature below 165 K, as a result of which the aqueous solution cools fast enough to solidify to form a vitrified sample, and • forming an image of the vitrified sample in an evacuated sample chamber of a charged particle microscope, • characterized in that the droplets are sprayed on the surface while in the evacuated sample chamber of the charged particle microscope,
A method for determining optimized magnetic resonance imaging parameters for medical imaging of a patient for medical procedures, comprising: learning a model of a relationship between known magnetic resonance imaging parameters and a quality measure, the known magnetic resonance imaging parameters and the quality measure being determined from training data, the training data including training images annotated with the known imaging parameters and corresponding values for the quality measure; determining optimized magnetic resonance imaging parameters by optimizing the quality measure using the learned model, wherein the magnetic resonance imaging parameters include repetition time, echo time, echo train length, flip angle, slice thickness, pixel spacing and bandwidth; and acquiring images of the patient using the optimized magnetic resonance imaging parameters, wherein the quality measure comprises a signal-to-noise ratio determined as a ratio between an average intensity value of pixels in a first region of interest in a target structure in a training image and an average intensity value of pixels in a second region of interest outside of the target structure in the training image, the second region being in the background. learning a model of a relationship between known magnetic resonance imaging parameters and a quality measure, the known magnetic resonance imaging parameters and the quality measure being determined from training data, the training data including training images annotated with the known imaging parameters and corresponding values for the quality measure; determining optimized magnetic resonance imaging parameters by optimizing the quality measure using the learned model, wherein the magnetic resonance imaging parameters include repetition time, echo time, echo train length, flip angle, slice thickness, pixel spacing and bandwidth; and acquiring images of the patient using the optimized magnetic resonance imaging parameters, wherein the quality measure comprises a signal-to-noise ratio determined as a ratio between an average intensity value of pixels in a first region of interest in a target structure in a training image and an average intensity value of pixels in a second region of interest outside of the target structure in the training image, the second region being in the background.
A method, comprising: storing, on an access node in an access-based computer network, a preferred access server of a plurality of access servers for each port of a plurality of ports of the access node, each port of the plurality of ports being capable of receiving messages from a client device, wherein multiple ports of the plurality of ports are assigned to prefer a given access server; receiving, by the access node, a session initiation message from a particular client device at a particular port of the plurality of ports; inserting, by the access node, a preferred access server indication based on the particular port into the session initiation message to enable the plurality of access servers to respond to the session initiation message based on the indication; and forwarding, by the access node, the session initiation message from the access node to one or more of the access servers based on the assigned preferred access server for the particular port on which the session initiation message was received; wherein each access server of the plurality of access servers responds to the session initiation message by: responding to the session initiation message without delay in response to the access server being the indicated preferred access server; and responding to the session initiation message with delay in response to the access server not being the indicated preferred access server. storing, on an access node in an access-based computer network, a preferred access server of a plurality of access servers for each port of a plurality of ports of the access node, each port of the plurality of ports being capable of receiving messages from a client device, wherein multiple ports of the plurality of ports are assigned to prefer a given access server; receiving, by the access node, a session initiation message from a particular client device at a particular port of the plurality of ports; inserting, by the access node, a preferred access server indication based on the particular port into the session initiation message to enable the plurality of access servers to respond to the session initiation message based on the indication; and forwarding, by the access node, the session initiation message from the access node to one or more of the access servers based on the assigned preferred access server for the particular port on which the session initiation message was received; wherein each access server of the plurality of access servers responds to the session initiation message by: responding to the session initiation message without delay in response to the access server being the indicated preferred access server; and responding to the session initiation message with delay in response to the access server not being the indicated preferred access server. responding to the session initiation message without delay in response to the access server being the indicated preferred access server; and responding to the session initiation message with delay in response to the access server not being the indicated preferred access server.
A label printer for printing labels applied to a carrier tape, in particular wound onto a roll, comprising a printhead unit having a printhead; a drive mechanism for the carrier tape having a driven carrier tape drawing roller; and a guide unit for the carrier tape, said guide unit being pivotably supported about a pivot axle between an operating position and an insertion position for the carrier tape, characterized in that the guide unit comprises a counter-element to the printhead, which is configured to hold the carrier tape with the labels in contact with the printhead in the operating position, in particular a driven print roller, and at least one non-driven carrier tape pressure roller associated with the carrier tape drawing roller; wherein, in the operating position of the guide unit, the carrier tape can be led between the printhead and the counter-element and between the carrier tape drawing roller and the respective carrier tape pressure roller and can in particular be transported along a predefined carrier tape transport path; and wherein, in the insertion position of the guide unit, the counter-element is pivoted away from the printhead and the respective carrier tape pressure roller is pivoted away from the carrier tape drawing roller. a printhead unit having a printhead; a drive mechanism for the carrier tape having a driven carrier tape drawing roller; and a guide unit for the carrier tape, said guide unit being pivotably supported about a pivot axle between an operating position and an insertion position for the carrier tape, characterized in that the guide unit comprises a counter-element to the printhead, which is configured to hold the carrier tape with the labels in contact with the printhead in the operating position, in particular a driven print roller, and at least one non-driven carrier tape pressure roller associated with the carrier tape drawing roller; wherein, in the operating position of the guide unit, the carrier tape can be led between the printhead and the counter-element and between the carrier tape drawing roller and the respective carrier tape pressure roller and can in particular be transported along a predefined carrier tape transport path; and wherein, in the insertion position of the guide unit, the counter-element is pivoted away from the printhead and the respective carrier tape pressure roller is pivoted away from the carrier tape drawing roller.
Riser sleeve for use in the casting of metals into a casting mould, comprising a riser body, comprising - a riser cavity for holding liquid metal and - a riser opening for joining the riser cavity to a mould cavity of the casting mould during the casting process, wherein - the riser cavity has a greater diameter than the diameter of the riser opening in at least one portion, - the riser body is made of an insulated and/or exothermic riser material, - the riser body is formed as a single piece, - the riser opening defines an axis, characterized in that - the riser cavity is asymmetric to the axis. - a riser cavity for holding liquid metal and - a riser opening for joining the riser cavity to a mould cavity of the casting mould during the casting process, - the riser cavity has a greater diameter than the diameter of the riser opening in at least one portion, - the riser body is made of an insulated and/or exothermic riser material, - the riser body is formed as a single piece, - the riser opening defines an axis, characterized in that - the riser cavity is asymmetric to the axis.