mhurhangee/ep-ind-claims huggingface dataset:
A method of minimization of drive tests, MDT, measurement, which is applicable to a base station, the method comprising: obtaining MDT measurement configuration information for one or more preset types of network devices, the MDT measurement configuration information comprising a signal strength threshold for each of the one or more preset types of network devices; sending the MDT measurement configuration information to user equipment, UE, such that the UE performs MDT measurement upon detecting that the signal strength of the preset type of network device exceeds the signal strength threshold; and receiving information on the MDT measurement of the preset type of network device from the UE; characterized by, wherein sending the MDT measurement configuration information to the UE comprises: receiving a type of a target network device currently detected from the UE; determining the type of the target network device detected by the UE; determining target MDT measurement configuration information according to the type of the target network device and the MDT measurement configuration information; and sending the target MDT measurement configuration information to the UE. obtaining MDT measurement configuration information for one or more preset types of network devices, the MDT measurement configuration information comprising a signal strength threshold for each of the one or more preset types of network devices; sending the MDT measurement configuration information to user equipment, UE, such that the UE performs MDT measurement upon detecting that the signal strength of the preset type of network device exceeds the signal strength threshold; and receiving information on the MDT measurement of the preset type of network device from the UE; characterized by, wherein sending the MDT measurement configuration information to the UE comprises: receiving a type of a target network device currently detected from the UE; determining the type of the target network device detected by the UE; determining target MDT measurement configuration information according to the type of the target network device and the MDT measurement configuration information; and sending the target MDT measurement configuration information to the UE. receiving a type of a target network device currently detected from the UE; determining the type of the target network device detected by the UE; determining target MDT measurement configuration information according to the type of the target network device and the MDT measurement configuration information; and sending the target MDT measurement configuration information to the UE.
System for determining the position of a mobile element in relation to a fixed structure, said system comprising: - an encoder designed to be solidly attached to the mobile element in order to move together with the latter, said encoder being arranged to emit a pseudo-sinusoidal spatial signal that represents the position of the encoder; - a sensor designed to be solidly attachaed to the fixed structure, said sensor comprising: ∘ at least two resistive elements each capable of delivering a signal Vi according to the pseudo-sinusoidal signal emitted, said resistive elements being disposed at read range from the pseudo-sinusoidal signal emitted by the encoder; ∘ a current loop assembly between the resistive elements; ∘ a device for processing the signals Vi which is arranged to provide, according to the signals Vi, two signals respectively SIN and COS in quadrature and with the same amplitude; - a device for calculating the position of the mobile element, said device comprising means for calculating the position of the encoder from the SIN and COS signals so as to deduce the position of the element from the calculated position of the encoder. - an encoder designed to be solidly attached to the mobile element in order to move together with the latter, said encoder being arranged to emit a pseudo-sinusoidal spatial signal that represents the position of the encoder; - a sensor designed to be solidly attachaed to the fixed structure, said sensor comprising: ∘ at least two resistive elements each capable of delivering a signal Vi according to the pseudo-sinusoidal signal emitted, said resistive elements being disposed at read range from the pseudo-sinusoidal signal emitted by the encoder; ∘ a current loop assembly between the resistive elements; ∘ a device for processing the signals Vi which is arranged to provide, according to the signals Vi, two signals respectively SIN and COS in quadrature and with the same amplitude; ∘ at least two resistive elements each capable of delivering a signal Vi according to the pseudo-sinusoidal signal emitted, said resistive elements being disposed at read range from the pseudo-sinusoidal signal emitted by the encoder; ∘ a current loop assembly between the resistive elements; ∘ a device for processing the signals Vi which is arranged to provide, according to the signals Vi, two signals respectively SIN and COS in quadrature and with the same amplitude; - a device for calculating the position of the mobile element, said device comprising means for calculating the position of the encoder from the SIN and COS signals so as to deduce the position of the element from the calculated position of the encoder.
A multi-spindle machine tool, comprising: a frame; a member mounted on said frame for rotation about a member axis ( x 1 -x 1); an indexing mechanism acting between said frame and member for selectively causing said member to rotate about said member axis relative to said frame sequentially between a plurality of angularly-spaced index positions; a plurality of spindle assemblies (26A, 26B, 26C, 26D, 26E) mounted on said member for rotation therewith, each spindle assembly (26A, 26B, 26C, 26D, 26E) being mounted for rotation relative to said member about its own individual spindle assembly axis; a plurality of motors (29A, 29B, 29C, 29D, 29E) mounted on said frame; and a plurality of ring gears (30A, 30B, 30C, 30D, 30E) mounted on said member, and engaging a respective one of said spindle assemblies (26A, 26B, 26C, 26D, 26E), each ring gear (30A, 30B, 30C, 30D, 30E) being driven by a respective one of said motors (29A, 29B, 29C, 29D, 29E); whereby said motors (29A, 29B, 29C, 29D, 29E) may be operated independently of one another to selectively rotate the respective spindle assemblies (26A, 26B, 26C, 26D, 26E) relative to said member at the desired rotational speeds; and characterized by said ring gears (30A, 30B, 30C, 30D, 30E) being spaced axially from one another along said member axis. a frame; a member mounted on said frame for rotation about a member axis ( x 1 -x 1); an indexing mechanism acting between said frame and member for selectively causing said member to rotate about said member axis relative to said frame sequentially between a plurality of angularly-spaced index positions; a plurality of spindle assemblies (26A, 26B, 26C, 26D, 26E) mounted on said member for rotation therewith, each spindle assembly (26A, 26B, 26C, 26D, 26E) being mounted for rotation relative to said member about its own individual spindle assembly axis; a plurality of motors (29A, 29B, 29C, 29D, 29E) mounted on said frame; and a plurality of ring gears (30A, 30B, 30C, 30D, 30E) mounted on said member, and engaging a respective one of said spindle assemblies (26A, 26B, 26C, 26D, 26E), each ring gear (30A, 30B, 30C, 30D, 30E) being driven by a respective one of said motors (29A, 29B, 29C, 29D, 29E); whereby said motors (29A, 29B, 29C, 29D, 29E) may be operated independently of one another to selectively rotate the respective spindle assemblies (26A, 26B, 26C, 26D, 26E) relative to said member at the desired rotational speeds; and characterized by said ring gears (30A, 30B, 30C, 30D, 30E) being spaced axially from one another along said member axis.
A process for producing a water-absorbing polyacrylic acid (salt) resin including a step of absorbing a gas discharged from a production step of the water-absorbing polyacrylic acid (salt) resin in: (a) water having a pH of 7 to 11 and a polyvalent metal ion content of 50 ppm or less, or (b) water having a pH of 7 to 11, the pH of the water having been adjusted by mixing a water having an electric conductivity of 100 (μS/cm) or less at 25°C with an alkali compound, wherein the alkali compound is at least one compound selected from the group consisting of a hydroxide, a carbonate or a hydrogen carbonate of an alkali metal. (a) water having a pH of 7 to 11 and a polyvalent metal ion content of 50 ppm or less, or (b) water having a pH of 7 to 11, the pH of the water having been adjusted by mixing a water having an electric conductivity of 100 (μS/cm) or less at 25°C with an alkali compound, wherein the alkali compound is at least one compound selected from the group consisting of a hydroxide, a carbonate or a hydrogen carbonate of an alkali metal.
A navigation apparatus comprising a processing resource configured to: receive weather-related data, wherein the weather-related data comprises, or is used to produce, a plurality of sets of speed modification data, each set of speed modification data relating to a different time period and comprising a plurality of speed modification factors, and each speed modification factor corresponding to an expected speed modification due to weather conditions during the respective time period for a particular road type; modify speed data for each of a plurality of road segments of a digital map, wherein the speed data for a road segment is representative of the expected speed of travel along the road segment, wherein for each road segment there is a respective classifier that classifies the road type for the road segment, and the speed data for each road segment is modified using the respective speed modification factor for the road type represented by the classifier for that road segment and for an expected time of arrival for that segment; and perform a navigation operation using the modified speed data, wherein the navigation operation comprises at least one of determining a route to a destination and determining an estimated time of arrival,ETA. receive weather-related data, wherein the weather-related data comprises, or is used to produce, a plurality of sets of speed modification data, each set of speed modification data relating to a different time period and comprising a plurality of speed modification factors, and each speed modification factor corresponding to an expected speed modification due to weather conditions during the respective time period for a particular road type; modify speed data for each of a plurality of road segments of a digital map, wherein the speed data for a road segment is representative of the expected speed of travel along the road segment, wherein for each road segment there is a respective classifier that classifies the road type for the road segment, and the speed data for each road segment is modified using the respective speed modification factor for the road type represented by the classifier for that road segment and for an expected time of arrival for that segment; and perform a navigation operation using the modified speed data, wherein the navigation operation comprises at least one of determining a route to a destination and determining an estimated time of arrival,ETA.
A package (110, 310) for consumer goods formed of a single laminar blank of cardboard, paperboard or card, the package comprising a box, the box comprising: a front wall; a rear wall opposed to the front wall; a bottom wall; opposed side walls; a top wall having an opening therein for accessing the consumer goods in the package (110, 310), the opening extends across the top wall from the front edge thereof and wherein the periphery of the access opening is spaced apart from the rear edge and the side edges of the top wall so that the top wall extends around the rear and sides of the opening; and a flap (130, 330) hinged to the rear wall along the top edge of the rear wall moveable between a closed position in which the flap (130, 330) covers the opening and an open position in which the opening is uncovered, and wherein the top wall comprises an upper top wall panel extending from the front wall of the housing and including an integral rear portion and side portions and a pair of lower top wall panels extending from the top edges of the side walls of the housing and underlying and adhered to the side portions of the upper top wall panel. a front wall; a rear wall opposed to the front wall; a bottom wall; opposed side walls; a top wall having an opening therein for accessing the consumer goods in the package (110, 310), the opening extends across the top wall from the front edge thereof and wherein the periphery of the access opening is spaced apart from the rear edge and the side edges of the top wall so that the top wall extends around the rear and sides of the opening; and a flap (130, 330) hinged to the rear wall along the top edge of the rear wall moveable between a closed position in which the flap (130, 330) covers the opening and an open position in which the opening is uncovered, and wherein the top wall comprises an upper top wall panel extending from the front wall of the housing and including an integral rear portion and side portions and a pair of lower top wall panels extending from the top edges of the side walls of the housing and underlying and adhered to the side portions of the upper top wall panel.
Device for filtering a plastic melt, comprising a housing which has at least one inlet channel and at least one outlet channel for the plastic melt, wherein the at least one inlet channel is separated from the at least one outlet channel by at least one cavity for accommodating at least one filter pin which is axially and/or radially movable therein, wherein the at least one filter pin has a filter section to which at least one filtering means is detachably fastened so that the filter section of the at least one filter pin and the at least one filtering means define a filtrate cavity, wherein, in a working position of the filter pin, the plastic melt can pass from the at least one inlet channel through the filtering means to the filtrate cavity and the filtrate cavity is in fluid connection with the at least one outlet channel, and wherein, in a filter change position of the filter pin, the filtering means is freely accessible for replacing the filtering means, wherein at least one drainage channel is formed in the filter pin, wherein, in a start-up position of the filter pin, one end of the at least one drainage channel is in fluid connection with the at least one inlet channel in order to receive the plastic melt that is fed through the at least one inlet channel and to output the plastic melt at another end of the at least one drainage channel, characterized in that at least one web is formed in the filter pin in the region of the filter section of the filter pin, which web extends in the axial direction through the filtrate cavity, wherein the drainage channel is designed to run within the at least one web.
Apparatus for depositing a carbon layer, comprising a first power supply device for forming an arc discharge between an electron source and an evaporation material, wherein the negative pole of the first power supply device is electrically conductively connected to the electron source and the positive pole of the first power supply device is electrically conductively connected to the evaporation material; the evaporation material is embodied as a graphite rod and is surrounded by at least one heat-insulating element (4; 16; 17; 18) at least at the rod end of the graphite rod to be evaporated, characterized in that a permanent magnet system and at least one solenoid coil are arranged rotationally symmetrically around the evaporation material.
An ultrasound device comprising a receiver of transmissive ultrasound, a real imaging array and an ultrasound receive beamformer characterized in that the ultrasound receive beamformer comprises: a retrospective dynamic transmit focusing, RDT, receive beamformer configured to perform one-way only beamforming of signals output by the receiver of the transmissive ultrasound, wherein the transmissive ultrasound is issued by synthetic aperature acquisition with a virtual transducer array made of virtual transducer array elements, wherein each virtual transducer array element is formed by a focal location of one focused beam emanating from the real imaging array. a retrospective dynamic transmit focusing, RDT, receive beamformer configured to perform one-way only beamforming of signals output by the receiver of the transmissive ultrasound, wherein the transmissive ultrasound is issued by synthetic aperature acquisition with a virtual transducer array made of virtual transducer array elements, wherein each virtual transducer array element is formed by a focal location of one focused beam emanating from the real imaging array.
Running equation of time mechanism comprising a hand arrangement whose purpose is to indicate civil time by means of a civil hour hand and a civil minute hand, and a true minute hand, the running equation of time mechanism also including an equation of time cam having a profile which is determined by the difference, on every day of the year, between civil time, and true time, said equation of time cam being driven in rotation at the rate of one revolution per year by a timepiece movement, the position of the true minute hand being determined by the position of the equation of time cam, the running equation of time mechanism also including a differential gear device whose first input is formed by a cannon-pinion integral with a civil minute pipe on which is pressed said civil minute hand, and whose second input is formed by the equation of time cam, the differential gear device including a planetary reducer wheel set, via which the civil minute pipe drives a civil hour pipe on which is pressed the civil hour hand, characterized in that it includes a planetary multiplier wheel set via which the civil hour pipe drives a true minute pipe on which is pressed the true minute hand, the planetary reducer wheel set and the planetary multiplier wheel set rotating on themselves describing a circular trajectory centred on the civil minute pipe.
Preparation sled for assembling a vehicle, said preparation sled comprising a support, a set of mechanical components to be assembled indexed on said support, and a moving part to be assembled, said preparation sled further comprising a guide device of a flexible elongate member of said set of mechanical members, said guide device being a protective housing having a base indexed with respect to said support and an opposite free end of open section, characterized in that said guide device comprises a housing open towards said free end and of complementary shape to said moving part.
A process for the preparation of Enclomiphene citrate of formula: having needle shaped crystal habit, by means of crystallization of Enclomiphene citrate of formula with a mixture of a C2-C5 alkyl alcohol and water, wherein the amount of water is comprised between 10% and 40% v/v. having needle shaped crystal habit, by means of crystallization of Enclomiphene citrate of formula with a mixture of a C2-C5 alkyl alcohol and water, wherein the amount of water is comprised between 10% and 40% v/v.
A high-strength cold-rolled steel sheet having excellent ductility, hole expandability and surface treatment properties, the high-strength cold-rolled steel sheet comprising: in % by weight, 0.05 to 0.3% of carbon, 0.6 to 2.5% of silicon (Si), 0.01 to 0.5% of aluminum (Al), 1.5 to 3.0% of manganese (Mn), and the remainder being Fe, and unavoidable impurities, the high-strength cold-rolled steel sheet further optionally comprising the sum of one or two or more of Cr, Ni, and Mo: 2% or less, excluding 0% 0.05% or less of Ti, excluding 0% 0.003% or less of B, excluding 0%, the steel sheet has a microstructure comprised of, in an area fraction, ferrite in an amount of 60% or less, lath-type bainite of 25% or more, martensite of 5% or more, and lath-type retained austenite in an amount of 5% or more, the ferrite has an average grain diameter of 2μm or less measured in accordance with ASTM E112 and the ferrite satisfies Fn2, defined by relational expression 1, being 89% or more and Fa5, defined by relational expression 2, being 70% or less. Fn 2 = Number of ferrite grains of 2 μ m or less / number of total ferrite grains × 100 Fa 5 = area of ferrite grains of 5 μ m or greater / area of total ferrite grains × 100 in % by weight, 0.05 to 0.3% of carbon, 0.6 to 2.5% of silicon (Si), 0.01 to 0.5% of aluminum (Al), 1.5 to 3.0% of manganese (Mn), and the remainder being Fe, and unavoidable impurities, the high-strength cold-rolled steel sheet further optionally comprising the sum of one or two or more of Cr, Ni, and Mo: 2% or less, excluding 0% 0.05% or less of Ti, excluding 0% 0.003% or less of B, excluding 0%, the steel sheet has a microstructure comprised of, in an area fraction, ferrite in an amount of 60% or less, lath-type bainite of 25% or more, martensite of 5% or more, and lath-type retained austenite in an amount of 5% or more, the ferrite has an average grain diameter of 2μm or less measured in accordance with ASTM E112 and the ferrite satisfies Fn2, defined by relational expression 1, being 89% or more and Fa5, defined by relational expression 2, being 70% or less. Fn 2 = Number of ferrite grains of 2 μ m or less / number of total ferrite grains × 100 Fa 5 = area of ferrite grains of 5 μ m or greater / area of total ferrite grains × 100
A method of maturity classifying reticulocytes from a whole blood sample, comprising: (a) staining the sample with a supravital agglutinating dyeing reagent or a fluorescent agglutinating dye; (b) illuminating the stained sample with a light beam, preferably of a wavelength range of 200 nm to 780 nm in a light detection device, preferably a microscope, to detect reticulocytes; (c) determining for each reticulocyte the parameters of (i) a fraction (Λ) of the reticulum area (Ar) to the whole cell area (Ac); and (ii) a fraction (Γ) of the perimeter of the reticulum (Ur) to the reticulum area (Ar); and (d) maturity classifying a reticulocyte into 1 of 4 major maturity classes according to the values determined for Λ and Γ. (a) staining the sample with a supravital agglutinating dyeing reagent or a fluorescent agglutinating dye; (b) illuminating the stained sample with a light beam, preferably of a wavelength range of 200 nm to 780 nm in a light detection device, preferably a microscope, to detect reticulocytes; (c) determining for each reticulocyte the parameters of (i) a fraction (Λ) of the reticulum area (Ar) to the whole cell area (Ac); and (ii) a fraction (Γ) of the perimeter of the reticulum (Ur) to the reticulum area (Ar); and (d) maturity classifying a reticulocyte into 1 of 4 major maturity classes according to the values determined for Λ and Γ.