mhurhangee/ep-ind-claims huggingface dataset:
A radio communication device comprising: a reception unit that receives a radio signal; a measurement unit that measures a field intensity of the radio signal received by the reception unit; and a determination unit that determines whether the radio signal received by the reception unit satisfies a predetermined condition for a noise component; the radio communication device being characterized in comprising: an estimation unit that estimates a distance from a transmission source device of said radio signal based on the field intensity of the radio signal when it is determined by the determination unit to satisfy the predetermined condition, wherein the determination unit determines that the predetermined condition is satisfied when the noise component of the radio signal is greater than a set lower limit value and lower than a set upper limit value, and wherein the reception unit receives, from the transmission source device in advance, device information indicating a transmitting power for the radio signal from the transmission source device, and wherein the estimation unit estimates the distance from the transmission source device of the radio signal by using the device information. a reception unit that receives a radio signal; a measurement unit that measures a field intensity of the radio signal received by the reception unit; and a determination unit that determines whether the radio signal received by the reception unit satisfies a predetermined condition for a noise component; the radio communication device being characterized in comprising: an estimation unit that estimates a distance from a transmission source device of said radio signal based on the field intensity of the radio signal when it is determined by the determination unit to satisfy the predetermined condition, wherein the determination unit determines that the predetermined condition is satisfied when the noise component of the radio signal is greater than a set lower limit value and lower than a set upper limit value, and wherein the reception unit receives, from the transmission source device in advance, device information indicating a transmitting power for the radio signal from the transmission source device, and wherein the estimation unit estimates the distance from the transmission source device of the radio signal by using the device information. an estimation unit that estimates a distance from a transmission source device of said radio signal based on the field intensity of the radio signal when it is determined by the determination unit to satisfy the predetermined condition, wherein the determination unit determines that the predetermined condition is satisfied when the noise component of the radio signal is greater than a set lower limit value and lower than a set upper limit value, and wherein the reception unit receives, from the transmission source device in advance, device information indicating a transmitting power for the radio signal from the transmission source device, and wherein the estimation unit estimates the distance from the transmission source device of the radio signal by using the device information.
Process for measuring wear of a refractory lining of a receptacle (2; 202) intended to contain molten metal, the process comprising the following steps: - scanning a first surface of the refractory lining using a first laser scanner in order to obtain a first initial set of data representative of the first surface, - scanning a second surface of the refractory lining using a second laser scanner, distinct from the first laser scanner, in order to obtain a second initial set of data representative of the second surface, wherein the second surface includes a grey zone for the first laser scanner, a deposit located on the receptacle (2; 202) defining an obstacle located between the first laser scanner and the grey zone during scanning by the first laser scanner, and - calculating a final set of data using the first initial set of data and the second initial set of data, the final set of data being representative of a surface of the refractory lining including the first surface and the second surface. - scanning a first surface of the refractory lining using a first laser scanner in order to obtain a first initial set of data representative of the first surface, - scanning a second surface of the refractory lining using a second laser scanner, distinct from the first laser scanner, in order to obtain a second initial set of data representative of the second surface, wherein the second surface includes a grey zone for the first laser scanner, a deposit located on the receptacle (2; 202) defining an obstacle located between the first laser scanner and the grey zone during scanning by the first laser scanner, and - calculating a final set of data using the first initial set of data and the second initial set of data, the final set of data being representative of a surface of the refractory lining including the first surface and the second surface.
Theft protection module for an electric machine tool, having a position determination unit for determining a geographical position of the theft protection module and having at least one first data interface for transmitting data, in particular position data, to an external device, wherein the theft protection module is mounted or able to be mounted on a cable connected fixedly to the electric machine tool, characterized in that the theft protection module has a modular structure having at least one base module comprising the position determination unit and the first data interface, wherein further modules (104, 106, 108, 110) of the theft protection module for sensing, data transmission, data processing, energy supply, operating or state display purposes and to be secured to the cable of the electric machine tool are able to be plugged or locked individually or in combination and able to be used on the theft protection module in a manner secured against authorized disconnection.
A process for preparing zeolite Y of modified faujasite structure or composite material, comprising the zeolite Y of modified faujasite structure, especially at least 20% by weight relative to the total weight of the composite material, comprising the following steps: a) suspending a zeolite Y or a composite material comprising it, especially at a content of at least 20% by weight relative to the total weight of the material, with a basic aqueous solution comprising at least one strong base, especially NaOH or KOH, and/or a weak base, in particular sodium carbonate, sodium citrate, etc., for example at a concentration ranging from 0.001 to 0.5 M, at room temperature, with magnetic or mechanical stirring, b) filtering off the zeolite obtained and washing it with a solvent, especially a polar solvent, for example pure distilled water, c) optionally drying the washed zeolite, d) placing the washed and optionally dried zeolite in contact, with stirring, in a solution, especially an aqueous solution, of NH 4 NO 3, especially at a concentration ranging from 0.01 to 0.5 M, e) washing the zeolite with distilled water to neutral pH, f) calcining the zeolite obtained, and g) recovering the zeolite. a) suspending a zeolite Y or a composite material comprising it, especially at a content of at least 20% by weight relative to the total weight of the material, with a basic aqueous solution comprising at least one strong base, especially NaOH or KOH, and/or a weak base, in particular sodium carbonate, sodium citrate, etc., for example at a concentration ranging from 0.001 to 0.5 M, at room temperature, with magnetic or mechanical stirring, b) filtering off the zeolite obtained and washing it with a solvent, especially a polar solvent, for example pure distilled water, c) optionally drying the washed zeolite, d) placing the washed and optionally dried zeolite in contact, with stirring, in a solution, especially an aqueous solution, of NH 4 NO 3, especially at a concentration ranging from 0.01 to 0.5 M, e) washing the zeolite with distilled water to neutral pH, f) calcining the zeolite obtained, and g) recovering the zeolite.
Wire netting (10a; 10b; 10c), in particular safety net, with a plurality of helices (12a, 14a; 12b; 12c) which are braided with one another and at least one (helix of which is manufactured of at least one single wire, a wire bundle, a wire strand, a wire rope and/or another longitudinal element (16a; 16b; 16c) with at least one wire (18a; 18b; 18c) made of a high-tensile steel having a tensile strength of at least 800 N mm -2, characterised in that in a reverse-bend test the wire (18a; 18b; 18c) is bendable in opposite directions, by at least 90° respectively, around at least one bending cylinder having a diameter of maximally 2d, at least M times without breaking, wherein M can be determined, by rounding down if necessary, to be C · R - 0.5 · d -0.5 and wherein d is a diameter of the wire (18a; 18b; 18c) given in mm, R is a tensile strength of the wire (18a; 18b; 18c) in N mm -2 and C is a factor of at least 400 N 0.5 mm -0.5.
A capacitance detection circuit, configured to detect a capacitance of a capacitor to be detected, the capacitor to be detected being a capacitor for touch detection in a screen of an electronic device, and the capacitance detection circuit comprising: an amplification circuit, connected to the capacitor to be detected and configured to convert a capacitance signal of the capacitor to be detected into a voltage signal, the voltage signal being associated with the capacitance of the capacitor to be detected; and a control circuit, connected to the amplification circuit and configured to control an amplification factor of the amplification circuit to be a first amplification factor in a first period, and to control the amplification factor of the amplification circuit to be a second amplification factor in a second period, wherein noise generated by the screen in the first period is less than noise generated by the screen in the second period, and the first amplification factor is greater than the second amplification factor. an amplification circuit, connected to the capacitor to be detected and configured to convert a capacitance signal of the capacitor to be detected into a voltage signal, the voltage signal being associated with the capacitance of the capacitor to be detected; and a control circuit, connected to the amplification circuit and configured to control an amplification factor of the amplification circuit to be a first amplification factor in a first period, and to control the amplification factor of the amplification circuit to be a second amplification factor in a second period, wherein noise generated by the screen in the first period is less than noise generated by the screen in the second period, and the first amplification factor is greater than the second amplification factor.
A magnetic field gradient generator system arranged in a first cylindrical annular space around a tunnel of axis Oz and of essentially circular section defining a volume of interest in a nuclear magnetic resonance imaging machine, in order to create a magnetic field gradient in said volume of interest the system comprising inside the first cylindrical annular space at least solenoidal z -gradient first and second coils (11, 12) of axis Oz carrying currents in opposite directions; a set of N1 identical non-touching z -gradient first tubes of axes parallel to the axis Oz and arranged in a cylindrical annular subspace situated inside said first cylindrical annular space outside said z-gradient first and second coils (11, 12), each of said N1 first tubes comprising at least solenoidal third and fourth coils (14, 15) carrying currents in opposite directions; at least x -gradient fifth to eighth coils (21, 22, 23, 24) of saddle shape and y -gradient ninth to twelfth coils (25, 26, 27, 28) of saddle shape arranged around the z -gradient first and second coils (11, 12); a set of N2 identical non-touching x and y- gradient second tubes of axes parallel to the axis Oz and situated in said cylindrical annular subspace outside the z -gradient first and second coils (11, 12), being interposed between the z -gradient first tubes in said cylindrical annular subspace, each of the x and y -gradient second tubes comprising at least solenoidal thirteenth and fourteenth coils (31, 32) carrying currents in opposite directions, the x and y directions being mutually orthogonal and orthogonal to the axis Oz, the first and second coils (11, 12) being symmetrical relative to a plane xOy perpendicular to said axis Oz, the third and fourth coils (14, 15) being symmetrical relative to the plane xOy, the fifth to eighth coils (21, 22, 23, 24) from one hand and the ninth to twelfth coils (25, 26, 27, 28)from the other hand being also symmetrical relative to the plane xOy and the thirteenth and fourteenth coils (31, 32) being also symmetrical relative to the plane xOy.
A universal mounting apparatus configured to mount a transceiver radio unit (100,808) to an antenna structure (102,804) of a cellular communication system, the universal mounting apparatus comprising: a first mounting plate having features (610,806) configured to be compatible with a guide rail system of the antenna structure, the features configured to slide within channels defined in the guide rail system; at least one adjustment slot formed in the first mounting plate; a second mounting plate coupled to the first mounting plate; openings formed in the second mounting plate, a set of the openings arranged in a first pattern such that they are compatible with plural different mounting fastener locations for different transceiver radio unit types; and at least one adjustment fastener configured to facilitate slidable adjustment of the second mounting plate relative to the first mounting plate, wherein the at least one adjustment slot of the first mounting plate and at least one further opening of the second mounting plate accommodate the at least one adjustment fastener; wherein, when the at least one adjustment fastener is configured to be loosened, position of the second mounting plate is movable relative to the first mounting plate; wherein, when the at least one adjustment fastener is configured to be tightened, position of the second mounting plate is locked relative to the first mounting plate. a first mounting plate having features (610,806) configured to be compatible with a guide rail system of the antenna structure, the features configured to slide within channels defined in the guide rail system; at least one adjustment slot formed in the first mounting plate; a second mounting plate coupled to the first mounting plate; openings formed in the second mounting plate, a set of the openings arranged in a first pattern such that they are compatible with plural different mounting fastener locations for different transceiver radio unit types; and at least one adjustment fastener configured to facilitate slidable adjustment of the second mounting plate relative to the first mounting plate, wherein the at least one adjustment slot of the first mounting plate and at least one further opening of the second mounting plate accommodate the at least one adjustment fastener; wherein, when the at least one adjustment fastener is configured to be loosened, position of the second mounting plate is movable relative to the first mounting plate; wherein, when the at least one adjustment fastener is configured to be tightened, position of the second mounting plate is locked relative to the first mounting plate.
An X-ray system comprising: an imaging system including a source of X-ray radiation, an X-ray image receptor, control circuitry for controlling the source of X-ray radiation), and a wireless interface; and a handheld interface device configured to communicate wirelessly with the imaging system; wherein the imaging system is configured to communicate system operational data to the handheld interface device, and characterised in that: the handheld interface device includes a tracking device such that the imaging system is operable to use the location of the handheld interface device to determine a source-to-image distance, source-to-patient distance and a patient thickness. an imaging system including a source of X-ray radiation, an X-ray image receptor, control circuitry for controlling the source of X-ray radiation), and a wireless interface; and a handheld interface device configured to communicate wirelessly with the imaging system; wherein the imaging system is configured to communicate system operational data to the handheld interface device, and characterised in that: the handheld interface device includes a tracking device such that the imaging system is operable to use the location of the handheld interface device to determine a source-to-image distance, source-to-patient distance and a patient thickness. the handheld interface device includes a tracking device such that the imaging system is operable to use the location of the handheld interface device to determine a source-to-image distance, source-to-patient distance and a patient thickness.
A zoom lens comprising: a first lens group having a positive refractive power; a second lens group having a negative r+efractive power; a third lens group having a positive refractive power; and a rear lens group having a positive refractive power, wherein the first lens group, the second lens group, the third lens group, and the rear lens group are sequentially disposed from an object side, wherein during zooming from a wide angle position to a telephoto position, an interval between the first lens group and the second lens group is increased, and an interval between the second lens group and the third lens group is decreased, wherein the rear lens group comprises, sequentially from the object side, a first sub-group (Ra) having a positive refractive power, a second sub-group (Rb) having a negative refractive power, and a third sub-group (Rc) having a positive refractive power, and focusing in the nearest position is performed by moving the second sub-group (Rb) toward an image surface side, and wherein the zoom lens satisfies the following conditions: 0.2 < frt / ft < 1.8, and 0.2 < fb / frt < 1.0, wherein "frt" denotes a focal length of the rear lens group at the telephoto position, "fb" denotes a focal length of the second sub-group (Rb), and "ft" denotes a focal length of the zoom lens at the telephoto position. a first lens group having a positive refractive power; a second lens group having a negative r+efractive power; a third lens group having a positive refractive power; and a rear lens group having a positive refractive power, wherein the first lens group, the second lens group, the third lens group, and the rear lens group are sequentially disposed from an object side, wherein during zooming from a wide angle position to a telephoto position, an interval between the first lens group and the second lens group is increased, and an interval between the second lens group and the third lens group is decreased, wherein the rear lens group comprises, sequentially from the object side, a first sub-group (Ra) having a positive refractive power, a second sub-group (Rb) having a negative refractive power, and a third sub-group (Rc) having a positive refractive power, and focusing in the nearest position is performed by moving the second sub-group (Rb) toward an image surface side, and wherein the zoom lens satisfies the following conditions: 0.2 < frt / ft < 1.8, and 0.2 < fb / frt < 1.0, wherein "frt" denotes a focal length of the rear lens group at the telephoto position, "fb" denotes a focal length of the second sub-group (Rb), and "ft" denotes a focal length of the zoom lens at the telephoto position.
A method comprising: sending, by a wireless device, a capability message comprising: a first capability parameter indicating that downlink preemption is supported; and a second capability parameter indicating that uplink preemption is supported; receiving (2304, 1800, 2100) a control message comprising: based on the first capability parameter, a first radio network temporary identifier, RNTI, for reception of a downlink preemption indication; and based on the second capability parameter, a second RNTI for reception of an uplink preemption indication; and receiving (2306, 1802, 2102), based on the first RNTI or the second RNTI, downlink control information, DCI, indicating a preemption indication. sending, by a wireless device, a capability message comprising: a first capability parameter indicating that downlink preemption is supported; and a second capability parameter indicating that uplink preemption is supported; a first capability parameter indicating that downlink preemption is supported; and a second capability parameter indicating that uplink preemption is supported; receiving (2304, 1800, 2100) a control message comprising: based on the first capability parameter, a first radio network temporary identifier, RNTI, for reception of a downlink preemption indication; and based on the second capability parameter, a second RNTI for reception of an uplink preemption indication; and based on the first capability parameter, a first radio network temporary identifier, RNTI, for reception of a downlink preemption indication; and based on the second capability parameter, a second RNTI for reception of an uplink preemption indication; and receiving (2306, 1802, 2102), based on the first RNTI or the second RNTI, downlink control information, DCI, indicating a preemption indication.
A cell for a matrix multiply unit implemented as a systolic array of cells, the cell comprising: a weight matrix register configured to receive a weight input from either a transposed or a non-transposed weight shift register (705, 706); a transposed weight shift register configured to receive a weight input from a horizontal direction to be stored in the weight matrix register; a non-transposed weight shift register configured to receive a weight input from a vertical direction to be stored in the weight matrix register; and a multiply unit that is coupled to the weight matrix register and configured to multiply the weight input of the weight matrix register with a vector data input to obtain a multiplication result. a weight matrix register configured to receive a weight input from either a transposed or a non-transposed weight shift register (705, 706); a transposed weight shift register configured to receive a weight input from a horizontal direction to be stored in the weight matrix register; a non-transposed weight shift register configured to receive a weight input from a vertical direction to be stored in the weight matrix register; and a multiply unit that is coupled to the weight matrix register and configured to multiply the weight input of the weight matrix register with a vector data input to obtain a multiplication result.