mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a macro terminal (101, 102, 103, 205) and performing an interference coordination by a small base station (130, 230, 420, 430, 440), the method comprising the following steps performed by said small base station: determining whether a macro terminal (101, 102, 103, 205), which transmits a signal to a macro base station (140, 240), exists within a cell coverage of the small base station (130, 230, 420, 430, 440); adjusting the cell coverage of the small base station (130, 230, 420, 430, 440) according to whether the macro terminal (101, 102, 103, 205) exists within the cell coverage of the small base station (130, 230, 420, 430, 440); receiving, from the macro base station (140, 240), information associated with an uplink signal of the macro terminal (101, 102, 103, 205); wherein the determining is based on a common silence resource common to a cluster cell including the small base station and which is used to sense the macro terminal; allocating the common silence resource to correspond to an uplink resource allocated to the macro terminal (101, 102, 103, 205) based on the received information associated with the uplink signal of the macro terminal (101, 102, 103, 205); and using the common silence resource to sense the macro terminal (101, 102, 103, 205) by sensing the signal transmitted from the macro terminal (101, 102, 103, 205) to the macro base station (140, 240). determining whether a macro terminal (101, 102, 103, 205), which transmits a signal to a macro base station (140, 240), exists within a cell coverage of the small base station (130, 230, 420, 430, 440); adjusting the cell coverage of the small base station (130, 230, 420, 430, 440) according to whether the macro terminal (101, 102, 103, 205) exists within the cell coverage of the small base station (130, 230, 420, 430, 440); receiving, from the macro base station (140, 240), information associated with an uplink signal of the macro terminal (101, 102, 103, 205); wherein the determining is based on a common silence resource common to a cluster cell including the small base station and which is used to sense the macro terminal; allocating the common silence resource to correspond to an uplink resource allocated to the macro terminal (101, 102, 103, 205) based on the received information associated with the uplink signal of the macro terminal (101, 102, 103, 205); and
Grounding clip for an airbag ignition system adapted to be mounted to an airbag retainer insert, comprising: at least one first grounding contact in form of a spring tongue, adapted to contact a grounding contact of a squib connector; at least one second grounding contact (30, 30'; 31, 31') adapted to contact an electroconductive part of an airbag squib; and a flat base connecting the first and second grounding contacts (30, 30'; 31, 31') with each other, wherein the spring tongue has a straight portion that extends perpendicular from the flat base and in that the free end of the spring tongue comprises a bent portion that is not perpendicular to the base, characterized in that the spring tongue is arranged at an edge of the flat base, the straight portion extends from the flat base in a plane that is perpendicular to a plane defined by the flat base and parallel to a mating direction, and the bent portion forms a protrusion which protrudes outwards away from a longitudinal centerline of the flat base, wherein the longitudinal centerline is parallel with the mating direction. at least one first grounding contact in form of a spring tongue, adapted to contact a grounding contact of a squib connector; at least one second grounding contact (30, 30'; 31, 31') adapted to contact an electroconductive part of an airbag squib; and a flat base connecting the first and second grounding contacts (30, 30'; 31, 31') with each other, wherein the spring tongue has a straight portion that extends perpendicular from the flat base and in that the free end of the spring tongue comprises a bent portion that is not perpendicular to the base, characterized in that the spring tongue is arranged at an edge of the flat base, the straight portion extends from the flat base in a plane that is perpendicular to a plane defined by the flat base and parallel to a mating direction, and the bent portion forms a protrusion which protrudes outwards away from a longitudinal centerline of the flat base, wherein the longitudinal centerline is parallel with the mating direction.
A shaft grounding and monitoring system for a device (2, 91) having a rotating shaft, the shaft grounding and monitoring system comprising: a grounding member configured to make sliding electrical contact with the rotating shaft, the grounding member configured to be connected to ground; an electrical sensor (85, 96) coupled with the grounding member and configured to sense an electrical parameter that provides an indication of electricity flowing through the grounding member, wherein the sensor is configured to periodically sample for a sampling period of time, referred to as a sampling period, and then not to sample for a subsequent period of time, referred to as a non-sampling period, a processor operably coupled with the electrical sensor, the processor configured to receive and analyze data from the electrical sensor representing the electrical parameter; the processor is further configured to periodically analyze the data representing the electrical parameter from the electrical sensor for the sampling period and to not analyze the data representing the electrical parameter for a period of time immediately after the sampling period, where the sampling period is related to a rotation speed of the rotating shaft; and a memory operably coupled with the processor and configured to store data processed by the processor that is representative of the data provided by the electrical sensor. a grounding member configured to make sliding electrical contact with the rotating shaft, the grounding member configured to be connected to ground; an electrical sensor (85, 96) coupled with the grounding member and configured to sense an electrical parameter that provides an indication of electricity flowing through the grounding member, wherein the sensor is configured to periodically sample for a sampling period of time, referred to as a sampling period, and then not to sample for a subsequent period of time, referred to as a non-sampling period, a processor operably coupled with the electrical sensor, the processor configured to receive and analyze data from the electrical sensor representing the electrical parameter; the processor is further configured to periodically analyze the data representing the electrical parameter from the electrical sensor for the sampling period and to not analyze the data representing the electrical parameter for a period of time immediately after the sampling period, where the sampling period is related to a rotation speed of the rotating shaft; and a memory operably coupled with the processor and configured to store data processed by the processor that is representative of the data provided by the electrical sensor.
A sample probe system, comprising: a sample probe assembly comprising a transducer and a sample probe; an air supply assembly comprising a piezoelectric pump configured to supply an air flow to the sample probe assembly such that an air flow exits the sample probe; wherein the transducer is configured to detect a pressure change in the air flow and to provide signals to a control system of the sample probe system which is configured to determine a relative location of the sample probe with respect to a sample based on pressure changes in the air flow detected by the transducer, characterized in that the piezoelectric pump is an ultrasonic pump which receives an input voltage at a frequency greater than 20 kHz. a sample probe assembly comprising a transducer and a sample probe; an air supply assembly comprising a piezoelectric pump configured to supply an air flow to the sample probe assembly such that an air flow exits the sample probe; wherein the transducer is configured to detect a pressure change in the air flow and to provide signals to a control system of the sample probe system which is configured to determine a relative location of the sample probe with respect to a sample based on pressure changes in the air flow detected by the transducer, characterized in that the piezoelectric pump is an ultrasonic pump which receives an input voltage at a frequency greater than 20 kHz.
A filtering device for fluids comprising a filter housing in which at least one filtering element, which defines a longitudinal axis, can be accommodated in the form of a filter cartridge, which on at least one end has an end cap forming an enclosure for the respective end edge of the filter material (23, 25) and which can be fixed on an element receiver which interacts with the bottom part of the filter housing in order to fix the position of the filter element in its operating position and which forms a fluid path for the cleaned fluid which emerges from the filter cavity of the filter element, the element receiver containing a valve arrangement which blocks the fluid path and a control device (79, 83) being provided on the end cap of the filter element which is to be fixed on the element receiver, which control device unblocks the valve arrangement in the operating position, characterised in that the element receiver for forming the fluid path for the cleaned fluid has a seating connection which projects axially from the bottom part of the housing towards the filter element located in the operating position and which contains the valve arrangement, that the end cap has a threaded connection which, during the filtering process, forms the fluid outlet from the filter cavity of the filter element which forms the clean side and can be screwed to the seating connection, and that a control body (79, 83) is provided as a control device for the valve arrangement on the threaded connection, which control body, while being screwed to the seating connection, acts on the valve arrangement to unblock it.
A wireless power transfer enabled communication device, comprising: a plurality of modules (102, 104, 106, 108, 110, 112) configured to provide communication with communication devices according to a plurality of communication standards; a communication interface configured to communicatively couple the plurality of modules (102, 104, 106, 108, 110, 112) to one another, wherein a first module (102, 202) from among the plurality of modules (102, 104, 106, 108, 110, 112) is configured to implement a communication standard from among the plurality of communication standards, a front end module of the first module (102, 202) being fabricated using a high voltage semiconductor process and an NFC controller of the first module (102, 202) being fabricated using a low voltage semiconductor process, wherein the first module (102, 202) is configured to provide near field communication between the WPT enabled communication device and another near field communication capable device in accordance with a NFC standard, and wherein the first module (102, 202) is further configured to inductively receive a magnetic field from another NFC capable device and to recover information from the magnetic field and to derive a harvested power from the magnetic field. a plurality of modules (102, 104, 106, 108, 110, 112) configured to provide communication with communication devices according to a plurality of communication standards; a communication interface configured to communicatively couple the plurality of modules (102, 104, 106, 108, 110, 112) to one another, wherein a first module (102, 202) from among the plurality of modules (102, 104, 106, 108, 110, 112) is configured to implement a communication standard from among the plurality of communication standards, a front end module of the first module (102, 202) being fabricated using a high voltage semiconductor process and an NFC controller of the first module (102, 202) being fabricated using a low voltage semiconductor process, wherein the first module (102, 202) is configured to provide near field communication between the WPT enabled communication device and another near field communication capable device in accordance with a NFC standard, and wherein the first module (102, 202) is further configured to inductively receive a magnetic field from another NFC capable device and to recover information from the magnetic field and to derive a harvested power from the magnetic field.
A method for transmitting, by a base station, signals using a plurality of frequency allocation bands, each having a band size, the plurality of frequency allocation bands being managed by one entity of a specific layer above a physical layer, the method comprising: transmitting control information for a subsidiary carrier frequency band for a user equipment via a primary carrier frequency band of the user equipment, wherein the plurality of frequency allocation bands include the subsidiary carrier frequency band and the primary carrier frequency band, wherein the control information includes a logical index assigned to the subsidiary carrier frequency band and a physical index of a frequency allocation band used as the subsidiary carrier frequency band, and wherein the physical index of the subsidiary carrier frequency band corresponds to one of a plurality of absolute frequency band indexes assigned to frequency allocation bands available in the communication system, and the logical index assigned to the subsidiary carrier frequency band identifies the subsidiary carrier frequency band from among the plurality of frequency allocation bands managed by the entity of the specific layer. transmitting control information for a subsidiary carrier frequency band for a user equipment via a primary carrier frequency band of the user equipment, wherein the plurality of frequency allocation bands include the subsidiary carrier frequency band and the primary carrier frequency band, wherein the control information includes a logical index assigned to the subsidiary carrier frequency band and a physical index of a frequency allocation band used as the subsidiary carrier frequency band, and wherein the physical index of the subsidiary carrier frequency band corresponds to one of a plurality of absolute frequency band indexes assigned to frequency allocation bands available in the communication system, and the logical index assigned to the subsidiary carrier frequency band identifies the subsidiary carrier frequency band from among the plurality of frequency allocation bands managed by the entity of the specific layer.
A method for operating an electricity generating plant having a saturated steam or weakly superheated steam thermodynamic cycle, said electricity generating plant comprising a cycle with at least a nuclear energy source and a turbine, said turbine comprising at least a high-pressure module, a medium-pressure module and a low-pressure module, the steam flowing successively through the high-pressure, medium-pressure and low-pressure modules, the steam in the cycle undergoing a first drying and/or superheating cycle between the high-pressure and medium-pressure modules, the steam undergoing at least one second cycle comprising a drying process and/or superheating between the medium-pressure module and the low-pressure module, characterized in that the superheating in the second cycle is provided by using steam taken from a second steam bleed point at an intermediate stage of the high-pressure module.
Method of manual operation of a drive means comprising a drive mechanism and a transmission mechanism, in particular a drive means for a screening device for a building opening, a door, a window or similar elements, said drive means in a first state being moveable between a first position and a second position and adjustable in these positions and at any position in between these positions by means of said drive mechanism and said transmission mechanism characterized by the drive means or at least part of said drive means being manually moveable from said first state of the drive means to a second state of the drive means, whereby a power-transmitting connection of said transmission mechanism is disrupted by disengaging a drive wheel (23, 24, 64) from a guide rail (7, 8), after which the drive means can be manually moved to a desired position of the drive means.
A rolling bearing comprising: a fixed ring having a raceway surface; a rotary ring rotatable relative to the fixed ring; and rolling elements disposed between the fixed ring and the rotary ring; wherein the fixed ring includes, on a radially opposite side of the raceway surface of the fixed ring; a fitting surface fitted to a mating member; at least one annular groove in which an elastic member is fitted; and a recess adjacent to the at least one annular groove, and having a bottom surface having an outer diameter smaller than an outer diameter of the fitting surface, wherein the recess has a depth of 0.05 to 0.50 mm, and characterized in that the elastic member is an O-ring. a fixed ring having a raceway surface; a rotary ring rotatable relative to the fixed ring; and rolling elements disposed between the fixed ring and the rotary ring; wherein the fixed ring includes, on a radially opposite side of the raceway surface of the fixed ring; a fitting surface fitted to a mating member; at least one annular groove in which an elastic member is fitted; and a recess adjacent to the at least one annular groove, and having a bottom surface having an outer diameter smaller than an outer diameter of the fitting surface, wherein the recess has a depth of 0.05 to 0.50 mm, and
Edible fat powder comprising structuring fat, said fat powder having a full width at half maximum (FWHM) of the first order long spacing X-ray diffraction peak of 0.17 to 0.80 degrees and a free flowing density of 10 to 350 g/l; with the proviso that when the free flowing density is equal to or greater than C, the full width at half maximum is equal to or greater than ((A * free flowing density) + B), wherein A is 0.0005625, B is 0.213 degrees and C is 90 g/l; wherein - the FWHM is derived from the Small Angle X-ray Scattering measurement (SAXS) of the fat powder; - the measurement is done in transmission mode at 5 degrees Celsius with a wavelength of 0.15418 nm; - the FWHM is corrected for instrumental line broadening; and - the instrumental line broadening is determined by measuring the 1 1 1 Si reflection of NIST Standard Reference Material 640; and wherein the free flowing density is measured utilizing the protocol as described in the description. - the FWHM is derived from the Small Angle X-ray Scattering measurement (SAXS) of the fat powder; - the measurement is done in transmission mode at 5 degrees Celsius with a wavelength of 0.15418 nm; - the FWHM is corrected for instrumental line broadening; and - the instrumental line broadening is determined by measuring the 1 1 1 Si reflection of NIST Standard Reference Material 640;
Particles suitable for use in an electrophoretic fluid, the particles comprising a core particle and a polymeric shell adsorbed onto the core particle wherein the polymeric shell consists of a random copolymer having monomer or macromonomer building blocks, and the random copolymer comprises at least one charged or chargeable, optionally hydrocarbon insoluble, structural unit and at least one hydrocarbon soluble, stabilising structural unit consisting of acrylated or methacrylated polycondensates of fatty acids.
A flexible hub connection for joining a first rotatable shaft with a second rotatable shaft so that torque can be transmitted between the shafts through the connection, the connection comprising: a first flexible means having a first flex plane a second flexible means having a second flex plane an intermediate member in form of an inner adapter the first flexible means being connected between the first rotatable shaft and the intermediate member the second flexible means being connected between the intermediate member and the second rotatable shaft characterized in that the inner adapter comprises a short cylindrical body from which a first flange extends radially outwards from one end of the cylindrical body and a second flange extends radially inwards from the other end of the cylindrical body, and the cylindrical body together with the second flange defining a seat for the first flexible means such that the first flex plane and the second flex plane are being arranged substantially coplanar. a first flexible means having a first flex plane a second flexible means having a second flex plane an intermediate member in form of an inner adapter the first flexible means being connected between the first rotatable shaft and the intermediate member the second flexible means being connected between the intermediate member and the second rotatable shaft characterized in that the inner adapter comprises a short cylindrical body from which a first flange extends radially outwards from one end of the cylindrical body and a second flange extends radially inwards from the other end of the cylindrical body, and the cylindrical body together with the second flange defining a seat for the first flexible means such that the first flex plane and the second flex plane are being arranged substantially coplanar.
Method for the production of coil windings for the future insertion into insertion grooves of a stator support comprising the following steps: a) winding conductive wire onto a winding template along a helical winding path by turning the winding template; b) turning a laying pattern of a plurality of parallel conductive wires about 180° or a multiple thereof after every half or full turn of the winding template for producing twists which are later positioned at the ends of the stators outside the insertion grooves when introducing the coil windings into the insertion grooves; c) laying windings of the conductive wire extending along the helical winding path about one or some of the insertion fins of an insertion tool; d) stripping the windings of the conductive wire extending along the helical winding path from the winding template and laying these windings into the insertion tool. a) winding conductive wire onto a winding template along a helical winding path by turning the winding template; b) turning a laying pattern of a plurality of parallel conductive wires about 180° or a multiple thereof after every half or full turn of the winding template for producing twists which are later positioned at the ends of the stators outside the insertion grooves when introducing the coil windings into the insertion grooves; c) laying windings of the conductive wire extending along the helical winding path about one or some of the insertion fins of an insertion tool; d) stripping the windings of the conductive wire extending along the helical winding path from the winding template and laying these windings into the insertion tool.
A method of removing a jaw crusher shim arranged for positioning a movable jaw of a jaw crusher from the jaw crusher, the method comprising using a tool comprising: an abutment portion for abutment against at least one of the shim and a part of the jaw crusher, engaging means located at a distance from the abutment portion and engageable with a recess of the shim for pulling the shim out of the jaw crusher, and a hand grip portion being located such that a lever arm is formed between the hand grip portion and the abutment portion. an abutment portion for abutment against at least one of the shim and a part of the jaw crusher, engaging means located at a distance from the abutment portion and engageable with a recess of the shim for pulling the shim out of the jaw crusher, and a hand grip portion being located such that a lever arm is formed between the hand grip portion and the abutment portion.