mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition comprising: a. a drug susceptible to abuse; and b. foam forming agents comprising i. an effervescent mixture; ii. a surfactant; and iii. a combination of at least one high viscosity polymer and at least one low viscosity polymer. a. a drug susceptible to abuse; and b. foam forming agents comprising i. an effervescent mixture; ii. a surfactant; and iii. a combination of at least one high viscosity polymer and at least one low viscosity polymer. i. an effervescent mixture; ii. a surfactant; and iii. a combination of at least one high viscosity polymer and at least one low viscosity polymer.
A cannula for a surgical procedure, comprising: an elongated semi-circular body comprising: a cavity extending along a longitudinal axis of the elongated semi-circular body, the cavity having an open distal end and an open proximal end; an integrally formed outward bend extending curvilinear from the cavity on the proximal end; and, at least one fold line across the width of the cannula, perpendicular to the longitudinal axis, wherein the cannula is made from a polymer material, and wherein the cannula can be bent or broken along the at least one fold line to adjust the operable length of the cannula during a surgical procedure. an elongated semi-circular body comprising: a cavity extending along a longitudinal axis of the elongated semi-circular body, the cavity having an open distal end and an open proximal end; an integrally formed outward bend extending curvilinear from the cavity on the proximal end; and, at least one fold line across the width of the cannula, perpendicular to the longitudinal axis, an integrally formed outward bend extending curvilinear from the cavity on the proximal end; and, at least one fold line across the width of the cannula, perpendicular to the longitudinal axis, wherein the cannula is made from a polymer material, and wherein the cannula can be bent or broken along the at least one fold line to adjust the operable length of the cannula during a surgical procedure.
An optical fiber interconnection tray comprising: a base extending longitudinally from a first end to a second end, wherein the base includes a cable entrance at the first end of the tray (100, 100a), a first interconnection layer disposed on the base, and a second interconnection layer positioned over at least a portion of the first interconnection layer, wherein the second interconnection layer is disposed on a first repositionable mezzanine attached to the base at a plurality of locations between the first end and the second end of the base, characterized in that the repositionable mezzanine comprises legs, wherein each of the legs includes a foot portion disposed at an end of each leg to secure the repositionable mezzanine to the base. a base extending longitudinally from a first end to a second end, wherein the base includes a cable entrance at the first end of the tray (100, 100a), a first interconnection layer disposed on the base, and a second interconnection layer positioned over at least a portion of the first interconnection layer, wherein the second interconnection layer is disposed on a first repositionable mezzanine attached to the base at a plurality of locations between the first end and the second end of the base, characterized in that the repositionable mezzanine comprises legs, wherein each of the legs includes a foot portion disposed at an end of each leg to secure the repositionable mezzanine to the base.
Spectroscopic sensor apparatus (1; 1'), having: absorption section for holding at least one fluid medium to be analysed, an infrared radiation source for emitting infrared radiation into the absorption section, an infrared sensor array (4; 4'; 4"; 4"'; 4""), having a multiplicity of individually evaluable pixels (5, 6, 7, 8, 9; 5;', 6', 7') that are configured to detect the infrared radiation, propagating from the infrared radiation source through the fluid medium, as individual pixel measurement signals, wherein the pixels of one or more pixel regions (B1, B2, B4; B1, B4) are at least partially provided with a respective optical filter (9, 10, 11; 9, 11) for the wavelength-selective transmission of the infrared radiation; and an evaluation device, configured to combine a plurality of pixel measurement signals of the pixels (5, 6) and to output them via an individual measurement channel (K; K'), wherein the evaluation device is configured to determine the position of the optical filter or filters (9, 10, 11; 9, 11). absorption section for holding at least one fluid medium to be analysed, an infrared radiation source for emitting infrared radiation into the absorption section, an infrared sensor array (4; 4'; 4"; 4"'; 4""), having a multiplicity of individually evaluable pixels (5, 6, 7, 8, 9; 5;', 6', 7') that are configured to detect the infrared radiation, propagating from the infrared radiation source through the fluid medium, as individual pixel measurement signals, wherein the pixels of one or more pixel regions (B1, B2, B4; B1, B4) are at least partially provided with a respective optical filter (9, 10, 11; 9, 11) for the wavelength-selective transmission of the infrared radiation; and an evaluation device, configured to combine a plurality of pixel measurement signals of the pixels (5, 6) and to output them via an individual measurement channel (K; K'), wherein the evaluation device is configured to determine the position of the optical filter or filters (9, 10, 11; 9, 11).
A system for dilating a Eustachian tube, said system comprising: an imageable marker for insertion into the ear canal adjacent to the Eustachian tube to mark the location at which the Eustachian tube passes into the middle ear; a guidewire system comprising: a guide catheter having a bent or angled region at a distal portion of the guide catheter and an outlet opening positionable proximate the pharyngeal ostium of the Eustachian tube; and a guidewire that is insertable through the guide catheter and into the Eustachian tube through the pharyngeal ostium, wherein the guidewire comprises: a guidewire anchor located on a distal region of the guidewire for holding the guidewire in a substantially fixed position within the Eustachian tube; and a second marker or a sensor on a distal tip of the guidewire for tracking the location of the distal tip of the guidewire relative to anatomical structures of the middle ear; and a dilator that is advanceable over the guidewire and useable to dilate the Eustachian tube. an imageable marker for insertion into the ear canal adjacent to the Eustachian tube to mark the location at which the Eustachian tube passes into the middle ear; a guidewire system comprising: a guide catheter having a bent or angled region at a distal portion of the guide catheter and an outlet opening positionable proximate the pharyngeal ostium of the Eustachian tube; and a guidewire that is insertable through the guide catheter and into the Eustachian tube through the pharyngeal ostium, wherein the guidewire comprises: a guidewire anchor located on a distal region of the guidewire for holding the guidewire in a substantially fixed position within the Eustachian tube; and a second marker or a sensor on a distal tip of the guidewire for tracking the location of the distal tip of the guidewire relative to anatomical structures of the middle ear; and a dilator that is advanceable over the guidewire and useable to dilate the Eustachian tube.
A system, comprising: a field terminal block; a dongle configured to be installed on the field terminal block and configured to make an electrical connection with an input/output, I/O, loop; a mobile hand-held device including an operating software for communicating with the dongle and with a database of I/O loop data and wiring diagrams, wherein: the operating software is configured to use the database of I/O loop data and wiring diagrams of a wiring and cabling path between a marshalling cabinet, junction box and process instruments to be tested to automatically construct an I/O loop check file, and the dongle is configured to download the I/O loop check file to execute the testing of the I/O loop wherein an I/O loop test for the I/O loop comprises comparing a test data to an expected result for the I/O loop test. a field terminal block; a dongle configured to be installed on the field terminal block and configured to make an electrical connection with an input/output, I/O, loop; a mobile hand-held device including an operating software for communicating with the dongle and with a database of I/O loop data and wiring diagrams, wherein: the operating software is configured to use the database of I/O loop data and wiring diagrams of a wiring and cabling path between a marshalling cabinet, junction box and process instruments to be tested to automatically construct an I/O loop check file, and the dongle is configured to download the I/O loop check file to execute the testing of the I/O loop wherein an I/O loop test for the I/O loop comprises comparing a test data to an expected result for the I/O loop test. the operating software is configured to use the database of I/O loop data and wiring diagrams of a wiring and cabling path between a marshalling cabinet, junction box and process instruments to be tested to automatically construct an I/O loop check file, and the dongle is configured to download the I/O loop check file to execute the testing of the I/O loop wherein an I/O loop test for the I/O loop comprises comparing a test data to an expected result for the I/O loop test.
A method for piecing of a spinning nozzle of an air-jet spinning machine by means of which a yarn is produced from a fiber strand during spinning operation, the fiber strand being fed to a vortex chamber of the spinning nozzle by means of a guide channel, wherein the outer fibers of the fiber strand are wound around the inner fibers in the region of an inlet opening of a yarn forming element during the spinning operation, so that a yarn is formed which can finally be drawn off from the vortex chamber via a draw-off channel of the yarn forming element and wound onto a sleeve by means of a winding device, characterized in that the method comprises at least the following steps: - transporting a yarn end opposite a specified spinning direction into a yarn storage of the spinning nozzle branching off from the guide channel, - transporting an end segment of the fiber strand into the guide channel, and - drawing off the yarn end from the yarn storage, the drawing off of the yarn end and transporting of the end segment of the fiber strand being mutually synchronized such that the yarn end and the end segment overlap and are displaced together into the region of the inlet opening of the yarn-forming element disposed within the spinning nozzle, and are connected to each other there by means of a swirling air flow. wherein the outer fibers of the fiber strand are wound around the inner fibers in the region of an inlet opening of a yarn forming element during the spinning operation, so that a yarn is formed which can finally be drawn off from the vortex chamber via a draw-off channel of the yarn forming element and wound onto a sleeve by means of a winding device, characterized in that the method comprises at least the following steps: - transporting a yarn end opposite a specified spinning direction into a yarn storage of the spinning nozzle branching off from the guide channel, - transporting an end segment of the fiber strand into the guide channel, and - drawing off the yarn end from the yarn storage, the drawing off of the yarn end and transporting of the end segment of the fiber strand being mutually synchronized such that the yarn end and the end segment overlap and are displaced together into the region of the inlet opening of the yarn-forming element disposed within the spinning nozzle, and are connected to each other there by means of a swirling air flow. - transporting a yarn end opposite a specified spinning direction into a yarn storage of the spinning nozzle branching off from the guide channel, - transporting an end segment of the fiber strand into the guide channel, and - drawing off the yarn end from the yarn storage, the drawing off of the yarn end and transporting of the end segment of the fiber strand being mutually synchronized such that the yarn end and the end segment overlap and are displaced together into the region of the inlet opening of the yarn-forming element disposed within the spinning nozzle, and are connected to each other there by means of a swirling air flow.
A method for manufacturing an aluminum alloy material having a thermal bonding function in a single layer, wherein the aluminum alloy material is made of an aluminum alloy comprising Si: 1.0 to 5.0 mass% and Fe: 0.01 to 2.0 mass%; and optionally comprising at least one of Mg: 0.05 to 2.0 mass%, Cu: 0.05 to 1.5 mass% and Mn: 0.05 to 2.0 mass%, at least one of Zn: 6.0 mass% or less, In: 0.3 mass% or less and Sn: 0.3 mass% or less, at least one of Ti: 0.3 mass% or less, V: 0.3 mass% or less, Cr: 0.3 mass% or less, Ni: 2.0 mass% or less and Zr: 0.3 mass% or less, at least one of Be: 0.1 mass% or less, Sr: 0.1 mass% or less, Bi: 0.1 mass% or less, Na: 0.1 mass% or less and Ca: 0.05 mass% or less, with the balance Al and inevitable impurities, the aluminum alloy material comprising 10 to 1 × 10 4 pieces/μm 3 of Al-based intermetallic compounds having equivalent circle diameters of 0.01 to 0.5 μm and 200 pieces/mm 2 or less of Si-based intermetallic compounds having equivalent circle diameters of 5.0 to 10 μm, the manufacturing method comprising the steps of: casting the aluminum alloy for the aluminum alloy material using a twin-roll continuous casting and rolling method; cold-rolling a rolled plate twice or more, and annealing the rolled plate during the cold rolling step once or more, wherein annealing conditions in all the annealing steps are set to 1 to 10 hours at temperature of 250 to 550 °C, and wherein a reduction rate in a final cold-rolling stage is 50 % or less, wherein, in the casting step using the twin-roll continuous casting and rolling method, the rolling is performed in a state that a coating having a thickness of 1 to 500 μm and containing, as main compositions, aluminum and aluminum oxide, is formed on the twin roll surfaces, and that a rolling load per 1 mm width of the rolled plate is 500 to 5000 N so that the coating thickness and the rolling load can be set to optimally adjust the cooling rate during the casting. the manufacturing method comprising the steps of: casting the aluminum alloy for the aluminum alloy material using a twin-roll continuous casting and rolling method; cold-rolling a rolled plate twice or more, and annealing the rolled plate during the cold rolling step once or more, wherein annealing conditions in all the annealing steps are set to 1 to 10 hours at temperature of 250 to 550 °C, and wherein a reduction rate in a final cold-rolling stage is 50 % or less, wherein, in the casting step using the twin-roll continuous casting and rolling method, the rolling is performed in a state that a coating having a thickness of 1 to 500 μm and containing, as main compositions, aluminum and aluminum oxide, is formed on the twin roll surfaces, and that a rolling load per 1 mm width of the rolled plate is 500 to 5000 N so that the coating thickness and the rolling load can be set to optimally adjust the cooling rate during the casting.
A method of searching for broadcast devices by an observer device, comprising: receiving respective advertising messages from one or more broadcast devices; determining whether to initiate a search for additional broadcast devices; selecting a scanning device from among the one or more broadcast devices from which advertising messages are received; requesting the scanning device to perform a search for additional broadcast devices; and receiving (84, 88) at least one message with search results from the scanning device. receiving respective advertising messages from one or more broadcast devices; determining whether to initiate a search for additional broadcast devices; selecting a scanning device from among the one or more broadcast devices from which advertising messages are received; requesting the scanning device to perform a search for additional broadcast devices; and receiving (84, 88) at least one message with search results from the scanning device.
A camera module, comprising: a lens barrel including at least one imaging lens; an auto-focusing actuator moving the lens barrel in an optical axis direction and comprising a coil for auto-focus, and a yoke; a handshake compensating actuator moving the lens barrel in a direction orthogonal to the optical axis and comprising coils for handshake compensation; and common magnets disposed around the coil for autofocus, for actuating auto-focus and handshake compensation, each common magnet comprising an inner magnet which has two poles (N,S) of which one pole faces the coil for auto-focus, and an outer magnet opposed to the inner magnet, facing a coil for handshake compensation, characterized in that the the coil for autofocus is so shaped that the other pole of each inner magnet is farther away from the coil for auto-focus as compared to said one pole and is covered by said yoke. a lens barrel including at least one imaging lens; an auto-focusing actuator moving the lens barrel in an optical axis direction and comprising a coil for auto-focus, and a yoke; a handshake compensating actuator moving the lens barrel in a direction orthogonal to the optical axis and comprising coils for handshake compensation; and common magnets disposed around the coil for autofocus, for actuating auto-focus and handshake compensation, each common magnet comprising an inner magnet which has two poles (N,S) of which one pole faces the coil for auto-focus, and an outer magnet opposed to the inner magnet, facing a coil for handshake compensation, characterized in that the the coil for autofocus is so shaped that the other pole of each inner magnet is farther away from the coil for auto-focus as compared to said one pole and is covered by said yoke.
A get-online method for user equipment, wherein the method comprises: in a collision control access phase, sending a first signal to an access device at a first uplink frequency, wherein the first uplink frequency is an uplink frequency supported by a point-to-multipoint, P2MP, connection; receiving a second signal that is in response to the first signal and that is sent by the access device at a first downlink frequency and second downlink frequencies, wherein the first downlink frequency is a downlink frequency supported by the P2MP connection, and the second downlink frequencies are downlink frequencies supported by a point-to-point, P2P, connection; sending a third signal to the access device at the first uplink frequency and a plurality of second uplink frequencies comprised in a target carrier set, wherein the target carrier set is a subset of an intersection set of carrier sets comprising the second downlink frequencies and carrier sets allowed to be used by the user equipment, the second uplink frequencies are uplink frequencies supported by the P2P connection, and each carrier set comprises a plurality of uplink frequencies and a plurality of downlink frequencies; and performing negotiating capability with the access device based on the target carrier set in a handshake access phase. in a collision control access phase, sending a first signal to an access device at a first uplink frequency, wherein the first uplink frequency is an uplink frequency supported by a point-to-multipoint, P2MP, connection; receiving a second signal that is in response to the first signal and that is sent by the access device at a first downlink frequency and second downlink frequencies, wherein the first downlink frequency is a downlink frequency supported by the P2MP connection, and the second downlink frequencies are downlink frequencies supported by a point-to-point, P2P, connection; sending a third signal to the access device at the first uplink frequency and a plurality of second uplink frequencies comprised in a target carrier set, wherein the target carrier set is a subset of an intersection set of carrier sets comprising the second downlink frequencies and carrier sets allowed to be used by the user equipment, the second uplink frequencies are uplink frequencies supported by the P2P connection, and each carrier set comprises a plurality of uplink frequencies and a plurality of downlink frequencies; and performing negotiating capability with the access device based on the target carrier set in a handshake access phase.
Vehicle heating, ventilating and/or air conditioning unit comprising a housing for the unit in which air flow channels for hot and/or cold air flows are provided, and comprising at least one rotatable air flap for opening and closing at least one of the air flow channels, the air flap having a first flap wing with a first channel closure area and at least one second flap wing with a second channel closure area, the second flap wing being connected to the first flap wing, wherein an intermediate air flow channel is formed between the first and second flap wings (46, 48), further comprising an air mixing chamber having hot and cold air inlet openings (28, 30) and at least two mixed air outlet openings (32, 33), wherein at least one of the mixed air outlet openings is associated with the air flap, the air flap having a closed position in which the mixed air outlet opening is closed by the first flap wing and an open position in which the mixed air outlet opening is open, characterized in that at least one hot air tube channel within the air mixing chamber has a hot air outlet opening in front of one of the mixed air outlet openings, wherein the hot air outlet opening of the hot air tube channel is closed by the second flap wing in the closed position of the air flap.
A method for installing on a motor vehicle elements for reducing the damage of parts of the vehicle in the event of an impact from the front, including the installing of a transverse beam for protection against frontal impacts at the front of the vehicle, said beam being disposed so as to lead a course towards the rear of the vehicle in the event of impact from the front, the installing of an impactor to protect a front face of a motor-fan unit of the vehicle, said impactor being configured to receive, in the event of impact from the front, in a late phase of the course, the support of the beam and, under the effect of this support, to withdraw towards the rear of the vehicle and to entrain the motor-fan unit, the front of which is then kept away from the beam, characterized in that, the vehicle being in addition equipped with a driven air intake module fixed to the motor-fan unit on a front face thereof for modulating the ventilation provided to the motor-fan unit, the method includes in addition the installing of an impactor extension which is adapted to said driven air intake module, to receive, in the event of impact from the front, from an early phase of the course, the support of the beam, and under the effect of this support, to withdraw towards the rear of the vehicle and to entrain the driven air intake module via the motor-fan unit, the driven air intake module being then kept away from the beam.