mhurhangee/ep-ind-claims huggingface dataset:
A tableting machine comprising a system for identifying a pressure roller column in the tableting machine with a machine processor, wherein the system comprises a plug connection comprising a receptacle and a plug, wherein the plug has at least one embedded controller and data is interchangeable between the machine processor of the tableting machine and the embedded controller of the plug by means of the one plug connection, and the plug and the receptacle are present on the tableting machine, wherein the plug can be connected to the receptacle, wherein the embedded controller comprises a processor and a memory chip and the data is evaluated by the processor in the plug, and wherein the plug and the receptacle have corresponding modules (26, 28, 30) comprising a module for signal lines, a module for current contacts, and a module for data transmission. wherein the system comprises a plug connection comprising a receptacle and a plug, wherein the plug has at least one embedded controller and data is interchangeable between the machine processor of the tableting machine and the embedded controller of the plug by means of the one plug connection, and the plug and the receptacle are present on the tableting machine, wherein the plug can be connected to the receptacle, wherein the embedded controller comprises a processor and a memory chip and the data is evaluated by the processor in the plug, and wherein the plug and the receptacle have corresponding modules (26, 28, 30) comprising a module for signal lines, a module for current contacts, and a module for data transmission.
A radio access device, wherein the radio access device supports at least two types of air interfaces, the radio access device communicates with a terminal by using a specified air interface, the specified air interface is at least one of the at least two types of air interfaces, and the radio access device comprises dedicated control entities respectively corresponding to the at least two types of air interfaces and a common control entity, wherein the common control entity is configured to determine a dedicated control entity corresponding to the specified air interface between the radio access device and the terminal; and the common control entity is configured to interact with the dedicated control entity corresponding to the specified air interface, to implement a Media Access Control function of the specified air interface; wherein in a process in which the common control entity interacts with the dedicated control entity corresponding to the specified air interface, the dedicated control entity is configured to: obtain radio condition information of the specified air interface, and send the radio condition information to the common control entity; and the common control entity is configured to: determine, based on the radio condition information, a radio resource interval corresponding to the specified air interface, and perform, within the radio resource interval corresponding to the specified air interface, resource scheduling for data transmitted through the specified air interface.
A method for determining a pattern of use of an electric toothbrush, wherein the electric toothbrush comprises a drive shaft for coupling to a brush part, an electric motor and a drive for providing a first motion of the drive shaft, wherein the method comprises the steps: measuring a characteristic parameter of the electric motor, detecting a distinctive change of the characteristic parameter, and evaluating the distinctive change, characterised in that it comprises the steps: determining the slope of the characteristic parameter, and detecting a subsequent occurrence of slopes having opposite signs. measuring a characteristic parameter of the electric motor, detecting a distinctive change of the characteristic parameter, and evaluating the distinctive change, determining the slope of the characteristic parameter, and detecting a subsequent occurrence of slopes having opposite signs.
An improved process for the preparation of crystalline Form-K of Febuxostat comprising the steps of: a) dissolving Febuxostat in an ester solvent at 50 - 80 °C, b) filtering the reaction mass, c) maintaining the filtrate for 30-120 minutes at same temperature, d) removing the solvent, e) adding hydrocarbon solvent, and f) isolating Febuxostat crystalline Form-K. a) dissolving Febuxostat in an ester solvent at 50 - 80 °C, b) filtering the reaction mass, c) maintaining the filtrate for 30-120 minutes at same temperature, d) removing the solvent, e) adding hydrocarbon solvent, and f) isolating Febuxostat crystalline Form-K.
A bottom emission organic light emitting display (OLED) device, comprising: an array substrate; a buffer layer over the array substrate; an insulating layer over the buffer layer; and a plurality of link lines over the insulating layer in a non-display area of the array substrate, wherein the buffer layer comprises a metal material, and the metal material of the buffer layer has a same light reflection rate as that of the plurality of link lines, wherein the insulating layer is formed between the buffer layer and the plurality of link lines, wherein the plurality of link lines are completely separated from the buffer layer by the insulating layer, and the plurality of link lines are connected to signal lines of a plurality of sub-pixels such that a driving signal is supplied from a driving circuit unit to the link lines of a respective sub-pixel among the plurality of sub-pixels, wherein the buffer layer under the plurality of link lines is configured to reduce visibility of the plurality of link lines such that incident light on the buffer layer is uniformly reflected with the plurality of link lines, wherein the buffer layer is not electrically connected to the signal lines of the plurality of sub-pixels, and wherein the buffer layer comprises a plurality of separated portions, wherein each portion overlaps a space between two adjacent link lines. an array substrate; a buffer layer over the array substrate; an insulating layer over the buffer layer; and a plurality of link lines over the insulating layer in a non-display area of the array substrate, wherein the buffer layer comprises a metal material, and the metal material of the buffer layer has a same light reflection rate as that of the plurality of link lines, wherein the insulating layer is formed between the buffer layer and the plurality of link lines, wherein the plurality of link lines are completely separated from the buffer layer by the insulating layer, and the plurality of link lines are connected to signal lines of a plurality of sub-pixels such that a driving signal is supplied from a driving circuit unit to the link lines of a respective sub-pixel among the plurality of sub-pixels, wherein the buffer layer under the plurality of link lines is configured to reduce visibility of the plurality of link lines such that incident light on the buffer layer is uniformly reflected with the plurality of link lines, wherein the buffer layer is not electrically connected to the signal lines of the plurality of sub-pixels, and wherein the buffer layer comprises a plurality of separated portions, wherein each portion overlaps a space between two adjacent link lines.
A mattress innerspring comprising: a plurality of coil-in-coil springs, each coil-in coil spring having an outside helical coil with helical turns in a counter-clockwise direction, and an inside helical coil with helical turns in a clockwise direction; the outside helical coil having an uncompressed height of 21.0 cm (8.25 inches), a pocketed height of 16.5 cm (6.5 inches), a diameter of 70 mm, at least 5 helical convolutions, and a centre convolution pitch dimension of 55.6 mm; the inside helical coil having an uncompressed height of 14.6 cm (5.75 inches), a diameter of 32.8 mm, and a centre convolution pitch dimension of 20 mm; characterized in that the inside helical coil has at least 7 helical convolutions, the spring rate of the inside coil is greater than the spring rate of the outside coil, each coil-in-coil spring is double annealed, and each coil-in-coil spring is contained in a pocket and arranged in a matrix. a plurality of coil-in-coil springs, each coil-in coil spring having an outside helical coil with helical turns in a counter-clockwise direction, and an inside helical coil with helical turns in a clockwise direction; the outside helical coil having an uncompressed height of 21.0 cm (8.25 inches), a pocketed height of 16.5 cm (6.5 inches), a diameter of 70 mm, at least 5 helical convolutions, and a centre convolution pitch dimension of 55.6 mm; the inside helical coil having an uncompressed height of 14.6 cm (5.75 inches), a diameter of 32.8 mm, and a centre convolution pitch dimension of 20 mm; characterized in that the inside helical coil has at least 7 helical convolutions, the spring rate of the inside coil is greater than the spring rate of the outside coil, each coil-in-coil spring is double annealed, and each coil-in-coil spring is contained in a pocket and arranged in a matrix.
A method of characterising a target double stranded polynucleotide using a transmembrane pore in a membrane, comprising: a) providing the target double stranded polynucleotide with a Y adaptor at one end and a hairpin loop adaptor at the other end, wherein the Y adaptor comprises one or more first anchors for coupling the polynucleotide to the membrane, wherein the hairpin loop adaptor comprises one or more second anchors for coupling the polynucleotide to the membrane and wherein the strength of coupling of the hairpin loop adaptor to the membrane is greater than the strength of coupling of the Y adaptor to the membrane; b) contacting the polynucleotide provided in step a) with the transmembrane pore such that at least one strand of the polynucleotide moves through the pore; and c) taking one or more measurements as the at least one strand of the polynucleotide moves with respect to the pore wherein the measurements are indicative of one or more characteristics of the at least one strand of the polynucleotide and thereby characterising the double stranded target polynucleotide. a) providing the target double stranded polynucleotide with a Y adaptor at one end and a hairpin loop adaptor at the other end, wherein the Y adaptor comprises one or more first anchors for coupling the polynucleotide to the membrane, wherein the hairpin loop adaptor comprises one or more second anchors for coupling the polynucleotide to the membrane and wherein the strength of coupling of the hairpin loop adaptor to the membrane is greater than the strength of coupling of the Y adaptor to the membrane; b) contacting the polynucleotide provided in step a) with the transmembrane pore such that at least one strand of the polynucleotide moves through the pore; and c) taking one or more measurements as the at least one strand of the polynucleotide moves with respect to the pore wherein the measurements are indicative of one or more characteristics of the at least one strand of the polynucleotide and thereby characterising the double stranded target polynucleotide.
A curable silicone emulsion composition comprising 100 parts by weight of an organopolysiloxane containing at least two silicon-bonded hydroxyl groups per molecule, 0.01 to 5 parts by weight of an organohydrogenpolysiloxane containing at least two silicon-bonded hydrogen atoms per molecule, 1 to 10 parts by weight of a reaction product of an amino-containing organoalkoxysilane with an acid anhydride, 0.1 to 10 parts by weight of an epoxy-containing organoalkoxysilane and/or partial hydrolytic condensate thereof, 0.5 to 50 parts by weight of colloidal silica, 0.1 to 10 parts by weight of a bismuth compound, and 50 to 500 parts by weight of water. 100 parts by weight of an organopolysiloxane containing at least two silicon-bonded hydroxyl groups per molecule, 0.01 to 5 parts by weight of an organohydrogenpolysiloxane containing at least two silicon-bonded hydrogen atoms per molecule, 1 to 10 parts by weight of a reaction product of an amino-containing organoalkoxysilane with an acid anhydride, 0.1 to 10 parts by weight of an epoxy-containing organoalkoxysilane and/or partial hydrolytic condensate thereof, 0.5 to 50 parts by weight of colloidal silica, 0.1 to 10 parts by weight of a bismuth compound, and 50 to 500 parts by weight of water.
A composite sintered body comprising a diamond phase and a non-diamond carbon phase, a non-diamond carbon phase occupancy rate being not lower than 10% and not higher than 30%, the non-diamond carbon phase occupancy rate being a percentage of an area of the non-diamond carbon phase to a total area of one arbitrarily specified cross section of the composite sintered body, an average particle size of sintered diamond particles forming the diamond phase being not less than 50 nm and not larger than 1000 nm, and an average particle size of sintered non-diamond carbon particles forming the non-diamond carbon phase being not less than 100 nm and not larger than 2000 nm, and a Knoop hardness of the composite sintered body, which is measured at a measurement load of 9.8 N, is not lower than 50 GPa.
A system for carrying out a treatment of a human or animal body by a surgeon, comprising a hand-held instrument having an instrument head that acts on an operating field of the body and supports a treatment tool, and comprising a computer on which a navigation program is provided to assist the guidance of the instrument head, wherein body data representing the part of the body containing the operating field, planning data representing the planned treatment, and instrument data representing the position and orientation of the instrument head are available to the navigation program, wherein a positioning means for recording the instrument data is present, wherein the navigation program compares the instrument data as actual data with the planning data as desired data, wherein a signalling means is provided, which indicates to the surgeon a deviation of the actual data from the desired data, characterised in that the positioning means comprises an image-recording means that is located at the instrument head and that records, during the handling of the instrument head and in particular in rapid sequence, single images of a body part that is represented in the body data and is in a defined relationship with the treatment site, wherein the orientation of the image-recording means is in a defined relationship with the instrument head, wherein the navigation program generates the instrument data by matching the single images with the body data, and that the navigation program, for comparison of the single images with the body data, filters out solid structures from the body data, such as exposed bone and/or teeth.
An imaging member comprising: • a substrate; • a charge blocking layer formed by a coating solution comprising one or more functionalized organosilanes; an anionic surfactant; and an optional solvent, wherein the coating solution is aqueous-based disposed on the substrate; and • an adhesive interfacial layer disposed on the charge blocking layer, wherein the adhesive interfacial layer is disposed between the charge blocking layer and the charge generation layer. • a substrate; • a charge blocking layer formed by a coating solution comprising one or more functionalized organosilanes; an anionic surfactant; and an optional solvent, wherein the coating solution is aqueous-based disposed on the substrate; and • an adhesive interfacial layer disposed on the charge blocking layer, wherein the adhesive interfacial layer is disposed between the charge blocking layer and the charge generation layer.
Gel particles each having a three-dimensional crosslinked structure having at least one bond selected from a urethane bond and a urea bond, the gel particles each comprising: a maleimide group represented by Formula 1 below, in Formula 1, R 1 and R 2 each independently represent a hydrogen atom or an alkyl group, R 1 and R 2 may be bonded to each other to form a ring, and * represents a bonding site, wherein the three-dimensional crosslinked structure in the gel particles is a product formed by the reaction between a trifunctional or higher isocyanate compound and water. a maleimide group represented by Formula 1 below, in Formula 1, R 1 and R 2 each independently represent a hydrogen atom or an alkyl group, R 1 and R 2 may be bonded to each other to form a ring, and * represents a bonding site, wherein the three-dimensional crosslinked structure in the gel particles is a product formed by the reaction between a trifunctional or higher isocyanate compound and water.
A method of determining a transmission mode configuration for a cell of a node of a telecommunication network, the node configured to serve a plurality of user devices within the cell, wherein the method includes determining an application that is running on each user device connected to the telecommunication network cell, wherein the determination of the transmission mode configuration is based on evaluation of at least one condition associated with each of the determined one or more applications, the evaluation being against a specific transmission mode configuration; wherein the at least one condition comprises a throughput, and wherein the evaluation comprises, for each of the plurality of user devices: - comparing a required throughput for the respective user device with a first threshold throughput, the first threshold throughput being a throughput which would be achieved in the event of selecting a first transmission mode configuration and the required throughput being computed from a throughput required by the application running on the respective user device; wherein a selection of the first transmission mode configuration or a second transmission mode configuration is based on the comparisons for the plurality of user devices, such that if the required throughput is lower than the first threshold for all of the plurality of user devices, the first transmission mode is selected; and wherein the first transmission mode configuration is a SIMO configuration and the second transmission mode configuration is a MIMO configuration, or wherein the first transmission mode configuration is a MIMO configuration and the second transmission mode configuration is a SIMO configuration. - comparing a required throughput for the respective user device with a first threshold throughput, the first threshold throughput being a throughput which would be achieved in the event of selecting a first transmission mode configuration and the required throughput being computed from a throughput required by the application running on the respective user device;
A method for echo suppression comprising: calculating, by an echo suppressor, energy of a far-end signal and energy of a near-end signal in a signal transmission path; adjusting a step size value of an adaptive filter algorithm using the calculated energy of the far-end signal; updating an estimate of an echo channel from the far-end signal to the near-end signal using the adaptive filter algorithm; and estimating an echo in the near-end signal using the updated estimate of the echo channel; characterized in that the method further comprises: calculating a controllable suppression gain parameter as a function of the energy of the far-end signal, the energy of the near-end signal, and energy of the estimated echo in the near-end signal; deriving a suppression filter using the near-end signal, the estimated echo in the near-end signal, and the controllable suppression gain parameter; suppressing the estimated echo in the near-end signal using the suppression filter; and updating the controllable suppression gain parameter as a decreasing function of the difference between the energy of the estimated echo in the near-end signal and the energy of the near-end signal. calculating, by an echo suppressor, energy of a far-end signal and energy of a near-end signal in a signal transmission path; adjusting a step size value of an adaptive filter algorithm using the calculated energy of the far-end signal; updating an estimate of an echo channel from the far-end signal to the near-end signal using the adaptive filter algorithm; and estimating an echo in the near-end signal using the updated estimate of the echo channel; calculating a controllable suppression gain parameter as a function of the energy of the far-end signal, the energy of the near-end signal, and energy of the estimated echo in the near-end signal; deriving a suppression filter using the near-end signal, the estimated echo in the near-end signal, and the controllable suppression gain parameter; suppressing the estimated echo in the near-end signal using the suppression filter; and updating the controllable suppression gain parameter as a decreasing function of the difference between the energy of the estimated echo in the near-end signal and the energy of the near-end signal.
An expandable screw comprising: a shaft having a longitudinal axis, an outer surface including a thread to engage bone, and an expandable region configurable between a first state with a first radius measured from the longitudinal axis to the outer surface and a second state having a second radius measured from the longitudinal axis to the outer surface; a head coupled with the shaft at a neck and configured to receive a driving instrument to insert and drive the shaft into the bone when the expandable region is in the first state; and a cut pattern on the shaft, characterized in that the cut pattern permits at least partial nesting of a first portion of the expandable region within a second portion of the expandable region in the second state; wherein the first portion forces the second portion radially outward as the first portion nests within the second portion; wherein the cut pattern forms a first cut surface and a second cut surface, the first cut surface substantially engaged with the second cut surface in the first state. a shaft having a longitudinal axis, an outer surface including a thread to engage bone, and an expandable region configurable between a first state with a first radius measured from the longitudinal axis to the outer surface and a second state having a second radius measured from the longitudinal axis to the outer surface; a head coupled with the shaft at a neck and configured to receive a driving instrument to insert and drive the shaft into the bone when the expandable region is in the first state; and a cut pattern on the shaft, characterized in that the cut pattern permits at least partial nesting of a first portion of the expandable region within a second portion of the expandable region in the second state; wherein the first portion forces the second portion radially outward as the first portion nests within the second portion; wherein the cut pattern forms a first cut surface and a second cut surface, the first cut surface substantially engaged with the second cut surface in the first state.
A composition comprising: a mixture or a reaction product of: an amino-functional polysiloxane; and a non-aromatic epoxy; a polyamide polymer, wherein the polyamide polymer is a poly(para-phenylene terephthalamide), a nylon, a polyaspartate, or a poly(hexamethylene adipamide); and an abrasive aggregate. a mixture or a reaction product of: an amino-functional polysiloxane; and a non-aromatic epoxy; an amino-functional polysiloxane; and a non-aromatic epoxy; a polyamide polymer, wherein the polyamide polymer is a poly(para-phenylene terephthalamide), a nylon, a polyaspartate, or a poly(hexamethylene adipamide); and an abrasive aggregate.