mhurhangee/ep-ind-claims huggingface dataset:
A method for applying labels on items, the items having different shapes and sizes, the labels being moved from a printer as a web to a cutting unit, wherein the label web is cut up into individual labels, the labels having a front side with applied print and a back side intended for contact with the items, the labels being moved individually by transfer means past a glue application unit to an application unit where the labels are applied to the items during the items passing the application unit, wherein the transfer means consisting of a rotating transfer drum having closed end walls and an external cylinder surface consisting of a canvas, a netting or a perforated sheet, the transfer drum being divided by means of stationary, radial partitionings into one or more internal chambers, including a vacuum chamber, the transfer drum providing the transfer of labels attached to the cylinder surface from the cutting unit past the glue application unit to the application unit, characterized in that the vacuum is established by means of a ventilator which is built into one of said stationary, radial partitionings, this partitioning forming a rearmost wall in the vacuum chamber as seen in the direction of rotation of the transfer drum.
A method of treating a fabric article so that it is imparted with a characteristic smell normally associated with fabric articles that have been exposed to natural sunlight, the method comprising positioning a fabric article to be treated in an enclosure and irradiating said fabric article positioned in said enclosure with ultraviolet light having a first wavelength of between 280nm and 320nm and having a second wavelength of between 320nm and 400nm, and so that it is subjected to a predetermined radiant exposure which is at least 12 kJ/m 2.
A plasma processing apparatus comprising: a chamber internally having a holding space in which a processing target is held, and a plasma space in which plasma is to be formed; a plasma gun for emitting electrons into the plasma space to form the plasma; characterised in that the apparatus further comprises at least one pair of opposed magnets adapted to form a linear magnetic field in which the magnetic flux linearly extends between the holding space and the plasma space across the chamber, and that the opposed magnetic poles of the opposed magnets have opposite polarities. a chamber internally having a holding space in which a processing target is held, and a plasma space in which plasma is to be formed; a plasma gun for emitting electrons into the plasma space to form the plasma; at least one pair of opposed magnets adapted to form a linear magnetic field in which the magnetic flux linearly extends between the holding space and the plasma space across the chamber, and that the opposed magnetic poles of the opposed magnets have opposite polarities.
A polyolefin multilayer microporous membrane comprising a first microporous layer and a second microporous layer; the first microporous layer including a first polyolefin resin containing a polypropylene, wherein the content of the polypropylene having a weight average molecular weight (Mw) of 5 × 10 4 or less is not greater than 5 mass% per 100 mass% of the polypropylene contained in the first microporous layer, measured according the method disclosed in the description; the second microporous layer including a second polyolefin resin containing an ultrahigh molecular weight polyethylene; and the polyolefin multilayer microporous membrane satisfying the following requirements and and: a thickness of the membrane is not greater than 25 μm, and the thickness (μm) and a porosity (%) of the membrane, measured according to the respective methods disclosed in the description, satisfy the relationship in Formula 1: porosity % / thickness μm ≥ 3.0 an air permeability of the membrane in terms of a membrane thickness of 16 μm is not less than 100 sec/100 cm 3 and not greater than 300 sec/100 cm 3; measured according the method disclosed in the description; an impedance measured with an impedance measuring according the method disclosed in the description is less than 7.5 Ω•cm 2. the first microporous layer including a first polyolefin resin containing a polypropylene, wherein the content of the polypropylene having a weight average molecular weight (Mw) of 5 × 10 4 or less is not greater than 5 mass% per 100 mass% of the polypropylene contained in the first microporous layer, measured according the method disclosed in the description; the second microporous layer including a second polyolefin resin containing an ultrahigh molecular weight polyethylene; and the polyolefin multilayer microporous membrane satisfying the following requirements and and: a thickness of the membrane is not greater than 25 μm, and the thickness (μm) and a porosity (%) of the membrane, measured according to the respective methods disclosed in the description, satisfy the relationship in Formula 1: porosity % / thickness μm ≥ 3.0 an air permeability of the membrane in terms of a membrane thickness of 16 μm is not less than 100 sec/100 cm 3 and not greater than 300 sec/100 cm 3; measured according the method disclosed in the description; an impedance measured with an impedance measuring according the method disclosed in the description is less than 7.5 Ω•cm 2. a thickness of the membrane is not greater than 25 μm, and the thickness (μm) and a porosity (%) of the membrane, measured according to the respective methods disclosed in the description, satisfy the relationship in Formula 1: porosity % / thickness μm ≥ 3.0 an air permeability of the membrane in terms of a membrane thickness of 16 μm is not less than 100 sec/100 cm 3 and not greater than 300 sec/100 cm 3; measured according the method disclosed in the description; an impedance measured with an impedance measuring according the method disclosed in the description is less than 7.5 Ω•cm 2.
An exhaust gas pipe system for a vehicle, particularly a rail vehicle, featuring - at least one main operating exhaust pipe that is connected to at least one fuel-consuming main operating unit, and - at least one auxiliary operating exhaust pipe that is connected to at least one fuel-consuming auxiliary operating unit and has an end section, as well as at least one exhaust gas outlet opening, wherein the at least one exhaust gas outlet opening of the auxiliary operating exhaust pipe is arranged in the main operating exhaust pipe in such a way that a negative pressure relative to the main operating exhaust pipe can be generated in the auxiliary operating exhaust pipe by an exhaust gas flow in the main operating exhaust pipe, characterized in that the main operating exhaust pipe features an exhaust gas outlet opening for discharging exhaust gases into the surroundings, wherein the exhaust gas outlet opening of the auxiliary operating exhaust pipe is arranged at a predefined distance from the exhaust gas outlet opening of the main operating exhaust pipe, wherein the distance between the exhaust gas outlet opening of the auxiliary operating exhaust pipe and the exhaust gas outlet opening of the main operating exhaust pipe has a value between the diameter of the auxiliary operating exhaust pipe and twice the diameter of the auxiliary operating exhaust pipe. - at least one main operating exhaust pipe that is connected to at least one fuel-consuming main operating unit, and - at least one auxiliary operating exhaust pipe that is connected to at least one fuel-consuming auxiliary operating unit and has an end section, as well as at least one exhaust gas outlet opening,
Fiber optic vibration and acceleration sensor with a dielectric mirror, couplers, first light-guiding fibers (1a, 1b) each connected to one of the couplers, second light-guiding fibers (4, 9), at least one light source and at least one detector generating a voltage from incident light, wherein the couplers furthermore are connected via the second light-guiding fibers (4, 9) with the at least one light source and the at least one from incident light voltage-generating detector, wherein free end areas of the first fibers (1a, 1b) are spaced apart from the dielectric mirror so that the ends of the first fibers (1a, 1b) point to two edges of the dielectric mirror arranged at an angle to each other, so that the edges of the dielectric mirror are in the light emanating from the first fibers (1a, 1b), and that in the non-excited state the detector voltages generated from the incident light on the ends of the first fibers (1a, 1b) are lower than the voltages, which, when the aperture cone of the first fibers (1a, 1b) is completely covered by the dielectric mirror, and thus with maximum reflection with the detector, are generated during an acceleration, and these voltages are measures of the fiber optic vibration and acceleration sensor.
A control system for a turbine, comprising; a control unit, the control unit being configured to generate a control signal for controlling the turbine based on at least one specific parameter of a flow field upstream of the turbine; at least one measurement unit, the at least one measurement unit being configured to measure at least one measurement value with regard to the at least one parameter of the flow field based on at least one measurement signal, each measurement signal being transmissible at respectively one measurement point (1, 2, 3, 4) of the flow field; at least one determination unit, the at least one determination unit being configured to determine the at least one parameter of the flow field based on the at least one measured measurement value, wherein the at least one determination unit is configured to detect an incorrect measurement value due to a blockage of at least one measurement signal between the at least one measurement unit and the respective measurement point (1, 2, 3, 4), particularly by a rotor blade of the turbine, and to apply at least one reconstruction method for replacing the incorrect measurement value to compensate a resulting incorrect determination of the at least one parameter of the flow field.
Head unit of a depilation appliance, comprising at least one pair of hair-clamping elements (12, 13), wherein the hair-clamping elements (12, 13) have tweezer surfaces (14, 15) which are arranged to face each other, which are movable towards and away from each other in their entirety so as to be movable into and out of contact to each other, and which are configured to move into alignment with each other in the process of getting into contact to each other, wherein the entirety of the tweezer surface of one of the hair-clamping elements (12, 13) is tiltable relative to a support that is included in the respective hair-clamping element.
Method for linking an end of a shaft of a tachometer positioned in a landing gear hub and a wheel mounted to rotate on said hub, the method comprising a step of equipping the wheel with a housing suitable for receiving the end of the shaft of a tachometer to drive the shaft in rotation with the wheel, the housing receiving a bearing member protruding inside the housing to be pushed back by the end of the shaft against an elastic member to take up any rotational play between the end of the shaft and the housing.
A mobility management entity, MME, which is configured to communicate with a target base station, the MME comprising: means for transmitting, to the target base station, an initial context setup message which comprises an application identifier which uniquely identifies a UE over an S1 interface within the MME and an identifier which is globally unique and which identifies the MME.
An analog, fiber-based signal distribution system, comprising: a frequency multiplier configured to receive a first periodic electrical signal at a base frequency and convert the first periodic electrical signal to a second periodic electrical signal at an elevated frequency greater than the base frequency; an optical source configured to convert the second periodic electrical signal to a third periodic optical signal at the elevated frequency; an optical amplifier configured to amplify the third periodic optical signal to produce a fourth periodic optical signal at the elevated frequency; and an optical fiber configured to receive the fourth periodic optical signal and direct a sixth periodic optical signal to a remote unit, the remote unit comprising: an optical detector configured to receive the sixth periodic optical signal at the elevated frequency and produce a seventh periodic electrical signal at the elevated frequency; and a frequency divider configured to receive the seventh periodic electrical signal at the elevated frequency and produce an eighth periodic electrical signal at the base frequency. a frequency multiplier configured to receive a first periodic electrical signal at a base frequency and convert the first periodic electrical signal to a second periodic electrical signal at an elevated frequency greater than the base frequency; an optical source configured to convert the second periodic electrical signal to a third periodic optical signal at the elevated frequency; an optical amplifier configured to amplify the third periodic optical signal to produce a fourth periodic optical signal at the elevated frequency; and an optical fiber configured to receive the fourth periodic optical signal and direct a sixth periodic optical signal to a remote unit, the remote unit comprising: an optical detector configured to receive the sixth periodic optical signal at the elevated frequency and produce a seventh periodic electrical signal at the elevated frequency; and a frequency divider configured to receive the seventh periodic electrical signal at the elevated frequency and produce an eighth periodic electrical signal at the base frequency. an optical detector configured to receive the sixth periodic optical signal at the elevated frequency and produce a seventh periodic electrical signal at the elevated frequency; and a frequency divider configured to receive the seventh periodic electrical signal at the elevated frequency and produce an eighth periodic electrical signal at the base frequency.
An automatic bread maker comprising: a machine main body; a bottomed cylindrical heater case that is disposed inside the machine main body and serves as a heating chamber; a lid body opening and closing an upper opening of the heater case; a mixing container that is held inside the heating chamber and houses cooking ingredients; a heater that heats the heating chamber; a mixer blade that mixes and kneads the cooking ingredients inside the mixing container by rotating inside the mixing container; and a driver that generates rotary driving force of the mixer blade, wherein the mixing container includes a planar bottom wall, a cylindrical side wall, and a curved corner part that connects the bottom wall and the side wall, a connection part between the corner part and the bottom wall being positioned inside a rotation trajectory of the mixer blade in plan view, a connection part between the corner part and the side wall is positioned higher than a part of the mixer blade, the part of the mixer blade being positioned vertically above the corner part; the bottom wall of the mixing container is circular in plan view, characterized in that the side wall of the mixing container is elliptical in plan view, so that a distance from a blade part of the mixer blade to the side wall of the mixing container can be varied along with rotation of the mixer blade. a machine main body; a bottomed cylindrical heater case that is disposed inside the machine main body and serves as a heating chamber; a lid body opening and closing an upper opening of the heater case; a mixing container that is held inside the heating chamber and houses cooking ingredients; a heater that heats the heating chamber; a mixer blade that mixes and kneads the cooking ingredients inside the mixing container by rotating inside the mixing container; and a driver that generates rotary driving force of the mixer blade, wherein the mixing container includes a planar bottom wall, a cylindrical side wall, and a curved corner part that connects the bottom wall and the side wall, a connection part between the corner part and the bottom wall being positioned inside a rotation trajectory of the mixer blade in plan view, a connection part between the corner part and the side wall is positioned higher than a part of the mixer blade, the part of the mixer blade being positioned vertically above the corner part; the bottom wall of the mixing container is circular in plan view, characterized in that the side wall of the mixing container is elliptical in plan view, so that a distance from a blade part of the mixer blade to the side wall of the mixing container can be varied along with rotation of the mixer blade.
An electrophysiology catheter (10, 110) having a longitudinal axis, the EP catheter comprising: a catheter body having: a proximal region; a neck region coupled to the proximal region; and a distal portion (16, 116) coupled to the neck region, the distal portion (16, 116) being predisposed into a plurality of loops comprising at least a first loop and a second loop when in a non-compressed state, wherein a majority of the first loop and a majority of the second loop is disposed within a common plane that is substantially perpendicular to the longitudinal axis of the EP catheter (10, 110); and a plurality of electrodes coupled to the distal portion (16, 116), further including at least one tension element coupled to at least one anchor member within the distal portion (16, 116) and coupled to an actuator in a handle configured to alter a diameter of an outermost loop of the plurality of loops, characterised in that the outermost loop of the plurality of loops is configured to provide a variable diameter and wherein an innermost loop of the plurality of loops is configured to provide a fixed diameter or radius of curvature. a catheter body having: a proximal region; a neck region coupled to the proximal region; and a distal portion (16, 116) coupled to the neck region, the distal portion (16, 116) being predisposed into a plurality of loops comprising at least a first loop and a second loop when in a non-compressed state, wherein a majority of the first loop and a majority of the second loop is disposed within a common plane that is substantially perpendicular to the longitudinal axis of the EP catheter (10, 110); and a proximal region; a neck region coupled to the proximal region; and a distal portion (16, 116) coupled to the neck region, the distal portion (16, 116) being predisposed into a plurality of loops comprising at least a first loop and a second loop when in a non-compressed state, wherein a majority of the first loop and a majority of the second loop is disposed within a common plane that is substantially perpendicular to the longitudinal axis of the EP catheter (10, 110); and a plurality of electrodes coupled to the distal portion (16, 116), further including at least one tension element coupled to at least one anchor member within the distal portion (16, 116) and coupled to an actuator in a handle configured to alter a diameter of an outermost loop of the plurality of loops, characterised in that the outermost loop of the plurality of loops is configured to provide a variable diameter and wherein an innermost loop of the plurality of loops is configured to provide a fixed diameter or radius of curvature.
An acoustic damper fixed to a vibration source along an outer surface of the vibration source which, in operation, generates air vibration, the acoustic damper comprising: a housing surrounding a part of the outer surface of the vibration source so as to form a space on the outside of the outer surface of the vibration source; characterized by: a compartment wall partitioning the space formed by the housing in a longitudinal direction so as to form adjacent spaces; and a partition wall provided in the housing along the outer surface of the vibration source so as to further partition the space formed by the housing, wherein a first partition member is provided continuously to the adjacent spaces partitioned by the compartment wall so as to close the adjacent spaces transverse to the longitudinal direction, and the compartment wall is opened at the portion of the first partition member on both sides thereof in the longitudinal direction of the compartment wall so that two folded passages are defined which are folded at the first partition member, wherein each of the folded passages has an inlet where it communicates with the vibration source and can take in the air vibration into the respective passage; wherein a second partition member is provided in each of the folded passages so as to close a downstream side of the respective passage with respect to a propagation direction of the air vibration to serve as resistance against the air vibration in an acoustic portion configured as one passage by each folded passage from the inlet, along the direction of one of the adjacent spaces to the first partition member, into the adjacent space at the first partition member, and, in a reverse direction, along the other one of the adjacent spaces to the second partition member. a housing surrounding a part of the outer surface of the vibration source so as to form a space on the outside of the outer surface of the vibration source; a compartment wall partitioning the space formed by the housing in a longitudinal direction so as to form adjacent spaces; and a partition wall provided in the housing along the outer surface of the vibration source so as to further partition the space formed by the housing,
Connecting arrangement comprising a housing with a connecting section on which at least one housing contact wedge with a contact face which is oriented in relation to a mounting direction at a wedge angle is formed, and with a connecting body which can be attached to the connecting section and on which a connecting contact wedge which has a contact face which is oriented at the same wedge angle is provided, characterized in that a plurality of housing contact wedges are provided on the connecting section of the housing at a distance from one another, and in that a receiving groove for the connecting contact wedge is formed between adjacent housing contact wedges.