mhurhangee/ep-ind-claims huggingface dataset:
A medical apparatus for measuring ECG (electrocardiogram) medical data comprising: - at least one microprocessor for a personal or laptop computer; - a personal or laptop computer having a unitary computer housing and comprising the at least one microprocessor; - at least one medical data gathering module for gathering ECG medical data comprising one or more analogue to digital (A-D) convertors; - a medical data handling module separate from the at least one microprocessor for buffering the transfer of medical data between the medical data gathering module and the at least one microprocessor wherein the medical data handling module is arranged to gather and store data in at least one predetermined group of data and the at least one microprocessor is arranged to retrieve data from the medical data handling module in one or more multiples of the at least one predetermined group of data; - at the input to the medical data gathering module, a first protection circuit comprising a defibrillation protection circuit protecting the medical data gathering module, medical data handling module and microprocessor from defibrillation voltages applied to the patient; and, - at the output of the medical data gathering module, a second protection circuit comprising an electromagnetic isolation barrier protecting the patient from voltages from a power supply; and further in which the at least one medical data gathering module, the at least one microprocessor and the medical data handling module are located within the unitary computer housing; whereby in use analogue gathered ECG medical data are digitised within the medical data gathering module between the first and second protection circuits before being processed by the electromagnetic isolation barrier, and digitising and buffering of ECG medical data takes place within the unitary computer housing. - at least one microprocessor for a personal or laptop computer; - a personal or laptop computer having a unitary computer housing and comprising the at least one microprocessor; - at least one medical data gathering module for gathering ECG medical data comprising one or more analogue to digital (A-D) convertors; - a medical data handling module separate from the at least one microprocessor for buffering the transfer of medical data between the medical data gathering module and the at least one microprocessor wherein the medical data handling module is arranged to gather and store data in at least one predetermined group of data and the at least one microprocessor is arranged to retrieve data from the medical data handling module in one or more multiples of the at least one predetermined group of data; - at the input to the medical data gathering module, a first protection circuit comprising a defibrillation protection circuit protecting the medical data gathering module, medical data handling module and microprocessor from defibrillation voltages applied to the patient; and, - at the output of the medical data gathering module, a second protection circuit comprising an electromagnetic isolation barrier protecting the patient from voltages from a power supply;
A head-mounted display device, comprising: a front assembly; a wearable assembly, connected to the front assembly, and adapted for wearing the front assembly onto a face of a user; and a cushion module (100, 200, 300), comprising: a hard member (110, 210, 310), connected to the wearable assembly; a soft member (120, 220, 320), connected to the hard member to contact skin of the user, and having a rear channel (121, 221, 321); and a fan (130, 230, 330), communicating with the rear channel, wherein the fan has a plurality of air inlets and an air outlet, the air inlets respectively communicate with a space enclosed by the front assembly and the face of the user and with an external environment, and the air outlet communicates with the rear channel. a front assembly; a wearable assembly, connected to the front assembly, and adapted for wearing the front assembly onto a face of a user; and a cushion module (100, 200, 300), comprising: a hard member (110, 210, 310), connected to the wearable assembly; a soft member (120, 220, 320), connected to the hard member to contact skin of the user, and having a rear channel (121, 221, 321); and a fan (130, 230, 330), communicating with the rear channel, wherein the fan has a plurality of air inlets and an air outlet, the air inlets respectively communicate with a space enclosed by the front assembly and the face of the user and with an external environment, and the air outlet communicates with the rear channel. a hard member (110, 210, 310), connected to the wearable assembly; a soft member (120, 220, 320), connected to the hard member to contact skin of the user, and having a rear channel (121, 221, 321); and a fan (130, 230, 330), communicating with the rear channel, wherein the fan has a plurality of air inlets and an air outlet, the air inlets respectively communicate with a space enclosed by the front assembly and the face of the user and with an external environment, and the air outlet communicates with the rear channel.
A process for thermal treatment of carbonaceous material in a reactor comprising electrodes positioned at both ends of the reactor, wherein in addition to the carbonaceous material to be treated a functional filler of graphitic material in particulate form is added to the reactor for allowing electrical current to flow through the charge, provided that when the carbonaceous material to be treated is graphitic material, no functional filler needs to be added to the graphitic material to be treated.
A sensor device for use with fluid flow systems, the sensor device comprising: a force pulse generator coupled with a fluid flow system and configured to emit a force pulse; and a force pulse sensor coupled with the fluid flow system, wherein the force pulse sensor is configured to: receive the force pulse emitted by the force pulse generator; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system, wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system, characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system. a force pulse generator coupled with a fluid flow system and configured to emit a force pulse; and a force pulse sensor coupled with the fluid flow system, wherein the force pulse sensor is configured to: receive the force pulse emitted by the force pulse generator; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system, wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system, characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system. receive the force pulse emitted by the force pulse generator; determine the fluid flow system's transient response to the force pulse; and determine an operating condition of the fluid flow system based upon the transient response, wherein the operating condition is indicative of the presence of an air bubble and/or a composition of a fluid within the fluid flow system, wherein the force pulse generator is coupled to an exterior surface of a fluid flow conduit of the fluid flow system, characterized in that the force pulse sensor is coupled to an interior surface of the fluid flow conduit of the fluid flow system.
A spark plug for internal-combustion engines, comprising: a cylindrical insulator having an axial bore that penetrates in an axial direction; a center electrode inserted in the axial bore; a cylindrical metal shell surrounding an outer circumference of the insulator; a ground electrode provided on a front end face of the metal shell so that a front end portion of the ground electrode faces a front end face of the center electrode; and a noble metal tip (32, 32A, 32B, 32C, 32D, 32F) joined to the ground electrode so as to form a spark discharge gap between a front end portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) and a front end portion of the center electrode, and the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) made of a platinum alloy that contains platinum as a principal component, characterized in that a projection length from a main body of the ground electrode to a front end face of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) falls within the range from 0.4mm or more to 1.6mm or less, the platinum alloy has a mean particle size of 70 micrometers or less after being heated at 1100 degrees C under an air atmosphere for 50 hours, and a stress remaining in the front end portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) is smaller than that remaining in a side portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F). a cylindrical insulator having an axial bore that penetrates in an axial direction; a center electrode inserted in the axial bore; a cylindrical metal shell surrounding an outer circumference of the insulator; a ground electrode provided on a front end face of the metal shell so that a front end portion of the ground electrode faces a front end face of the center electrode; and a noble metal tip (32, 32A, 32B, 32C, 32D, 32F) joined to the ground electrode so as to form a spark discharge gap between a front end portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) and a front end portion of the center electrode, and the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) made of a platinum alloy that contains platinum as a principal component, characterized in that a projection length from a main body of the ground electrode to a front end face of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) falls within the range from 0.4mm or more to 1.6mm or less, the platinum alloy has a mean particle size of 70 micrometers or less after being heated at 1100 degrees C under an air atmosphere for 50 hours, and a stress remaining in the front end portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F) is smaller than that remaining in a side portion of the noble metal tip (32, 32A, 32B, 32C, 32D, 32F).
A method for producing a joined belt by joining first and second belt ends (21, 22), comprising the steps of: applying an adhesive on at least one of a first end face of said first belt end and a second end face of said second belt end, at least a part of said first end face is diagonal to the belt width direction, or is perpendicular to said belt width direction, said second belt end having a shape complementary to said first belt end; butting said first end face to said second end face; and bonding said first and second end faces (21K, 22K) with said adhesive by pressing the butted portion of said first and second belt ends (21, 22) in said belt width direction so that said first and second belt ends (21, 22) are joined. applying an adhesive on at least one of a first end face of said first belt end and a second end face of said second belt end, at least a part of said first end face is diagonal to the belt width direction, or is perpendicular to said belt width direction, said second belt end having a shape complementary to said first belt end; butting said first end face to said second end face; and bonding said first and second end faces (21K, 22K) with said adhesive by pressing the butted portion of said first and second belt ends (21, 22) in said belt width direction so that said first and second belt ends (21, 22) are joined.
A method for producing fine particles, comprising: forming on a surface of a base material a concavo-convex pattern (13,15) made by arranging a plurality of convex portions on the surface; forming fine particles made of a fine particle material on at least part of the concavo-convex pattern; and releasing the formed fine particles from the concavo-convex pattern, wherein the fine particles are formed by vacuum vapor deposition, and the vacuum vapor deposition is performed at an angle of 1° to 80° to the direction perpendicular to the base material, with the concavo-convex pattern side of the base material facing a direction of the vacuum vapor deposition. forming on a surface of a base material a concavo-convex pattern (13,15) made by arranging a plurality of convex portions on the surface; forming fine particles made of a fine particle material on at least part of the concavo-convex pattern; and releasing the formed fine particles from the concavo-convex pattern, wherein the fine particles are formed by vacuum vapor deposition, and the vacuum vapor deposition is performed at an angle of 1° to 80° to the direction perpendicular to the base material, with the concavo-convex pattern side of the base material facing a direction of the vacuum vapor deposition.
A foam rubber material for a weather strip comprising a crosslinked rubber sponge material having a load value ratio satisfying the following relationship: load value ratio (%) = B/A×100≤50, wherein A is a load value at 50% compression in the course of compression deformation, and B is a load value at 50% compression in the course of returning from the deformation, and A and B are measured in accordance with JIS K6767 at a compression rate and a returning rate of 20 mm/ min each; and wherein the cross-linked rubber sponge material comprises an EPDM copolymer rubber and a pressure sensitive adhesive, wherein the pressure sensitive adhesive is a terpene-based resin. load value ratio (%) = B/A×100≤50, wherein A is a load value at 50% compression in the course of compression deformation, and B is a load value at 50% compression in the course of returning from the deformation, and A and B are measured in accordance with JIS K6767 at a compression rate and a returning rate of 20 mm/ min each; and wherein the cross-linked rubber sponge material comprises an EPDM copolymer rubber and a pressure sensitive adhesive, wherein the pressure sensitive adhesive is a terpene-based resin.
A first base station, BS, for handling radio bearer, RB, configurations of radio access technologies, RATs, comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device. configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device.
A pharmaceutical composition of sustained release triptorelin microspheres, the triptorelin microspheres comprising triptorelin or a salt thereof, poly(lactide-co-glycolide), and glucose.
A tunable Mach-Zehnder interferometer comprising: an optical splitter comprising at least one input waveguide and two output waveguides; an optical recombiner comprising two input waveguides and two output waveguides; a pair of interferometer arms, each optically coupled between one of the output waveguides of the optical splitter and one of the input waveguides of the optical recombiner; an arm photodetector section provided within each interferometer arm, the arm photodetector sections configured to measure the intensities of light passing therethrough so as to measure an effective split ratio (SR e) of the intensities of the light; an output photodetector section provided within each output waveguide of the optical recombiner, the output photodetector sections configured to measure an output ratio (R out) of intensities of light within the output photodetector sections; wherein each of the optical splitter and recombiner further comprises a tunable multimode interference coupler, the tunable MMI coupler comprising a tunable MMI region and a tuning electrode on a surface of the tunable MMI region, and wherein a tuning current to the tuning electrode of the MMI coupler of at least one of the splitter and recombiner is controlled in correspondence with the effective split ratio (SR e). an optical splitter comprising at least one input waveguide and two output waveguides; an optical recombiner comprising two input waveguides and two output waveguides; a pair of interferometer arms, each optically coupled between one of the output waveguides of the optical splitter and one of the input waveguides of the optical recombiner; an arm photodetector section provided within each interferometer arm, the arm photodetector sections configured to measure the intensities of light passing therethrough so as to measure an effective split ratio (SR e) of the intensities of the light; an output photodetector section provided within each output waveguide of the optical recombiner, the output photodetector sections configured to measure an output ratio (R out) of intensities of light within the output photodetector sections; wherein each of the optical splitter and recombiner further comprises a tunable multimode interference coupler, the tunable MMI coupler comprising a tunable MMI region and a tuning electrode on a surface of the tunable MMI region, and wherein a tuning current to the tuning electrode of the MMI coupler of at least one of the splitter and recombiner is controlled in correspondence with the effective split ratio (SR e).
Level transmitter for measuring a level of a product in a vessel with - at least one antenna for transmitting transmission signals and receiving echo signals, - a signal processing module, which is used to derive an echo function from the echo signals received, said echo function containing the amplitudes of the echo signal as a function of their time of flight, - a memory in which vessel-specific data are saved in a table, -- wherein the columns of the table with a column index are used to record one echo function each, -- wherein the echo functions are saved in the columns in an order such that the echo function saved in the table in the column with the column index corresponds to a determined level, and - an evaluation unit which is designed in such a way that -- it accesses the table to determine the current level and compares the echo functions saved in the table with the current echo function in such a way that it determines the echo function in the table which best matches the current echo function and sets the current level to equal the level assigned to the column index of the echo function determined. - at least one antenna for transmitting transmission signals and receiving echo signals, - a signal processing module, which is used to derive an echo function from the echo signals received, said echo function containing the amplitudes of the echo signal as a function of their time of flight, - a memory in which vessel-specific data are saved in a table, -- wherein the columns of the table with a column index are used to record one echo function each, -- wherein the echo functions are saved in the columns in an order such that the echo function saved in the table in the column with the column index corresponds to a determined level, and -- wherein the columns of the table with a column index are used to record one echo function each, -- wherein the echo functions are saved in the columns in an order such that the echo function saved in the table in the column with the column index corresponds to a determined level, - an evaluation unit which is designed in such a way that -- it accesses the table to determine the current level and compares the echo functions saved in the table with the current echo function in such a way that it determines the echo function in the table which best matches the current echo function and sets the current level to equal the level assigned to the column index of the echo function determined. -- it accesses the table to determine the current level and compares the echo functions saved in the table with the current echo function in such a way that it determines the echo function in the table which best matches the current echo function and sets the current level to equal the level assigned to the column index of the echo function determined.
A modular capsule kit for preparing a beverage by centrifugation of a capsule in a centrifuging brewing device upon liquid injection into the capsule and by rotating the capsule about its central axis in the device, the kit comprising at least two capsule types (1d,1e) having: - interface heads comprising a flange-like rim portion and a transversal wall having a central liquid inlet and peripheral outlet openings, and - bottom closures (8,8') designed for being individually connected to the interface head to enclose an ingredients compartment of predefined volume, wherein the volumes of the ingredient compartment of the at least two capsules (1d,1e) differ as a result of the selection of the bottom closure and/or its particular connection to the interface head characterized in that the bottom closure is formed of a disc-shaped closure wall designed to be connected to a tubular connection portion of the interface head and in that the bottom closure is sealed to the tubular connection portion at a predefined depth D' with respect to the transversal wall of the interface head, which depth D' preferably differs for the at least two capsule types (1d, 1e). - interface heads comprising a flange-like rim portion and a transversal wall having a central liquid inlet and peripheral outlet openings, and - bottom closures (8,8') designed for being individually connected to the interface head to enclose an ingredients compartment of predefined volume, wherein the volumes of the ingredient compartment of the at least two capsules (1d,1e) differ as a result of the selection of the bottom closure and/or its particular connection to the interface head characterized in that the bottom closure is formed of a disc-shaped closure wall designed to be connected to a tubular connection portion of the interface head and in that the bottom closure is sealed to the tubular connection portion at a predefined depth D' with respect to the transversal wall of the interface head, which depth D' preferably differs for the at least two capsule types (1d, 1e).