mhurhangee/ep-ind-claims huggingface dataset:
A power amplification device (800, 910, 1010) comprising: a power amplification device unit (400, 820), wherein the power amplification device unit (400, 820) includes: a power amplifier (410, 920, 1020) configured to amplify an input signal; and first elements (430, 930, 1030) connected to the power amplifier (410, 920, 1020) and configured to reduce envelope impedance of the power amplification device unit (400, 820) for maintaining linearity of the power amplifier (410, 920, 1020) by minimizing the influence of parasitic components of a power supply line on power supplied to a respective stage of the power amplifier (410, 920, 1020), wherein the envelope impedance refers to a ratio of envelope voltage to envelope current at a specific frequency of the power amplification device unit; characterized in that the power amplifier (410, 920, 1020) includes a plurality of stages, and each first element (430, 930, 1030) is a regulator configured to supply power to the power amplifier (410, 920, 1020), wherein each stage of the power amplifier is connected to a respective regulator. a power amplification device unit (400, 820), wherein the power amplification device unit (400, 820) includes: a power amplifier (410, 920, 1020) configured to amplify an input signal; and first elements (430, 930, 1030) connected to the power amplifier (410, 920, 1020) and configured to reduce envelope impedance of the power amplification device unit (400, 820) for maintaining linearity of the power amplifier (410, 920, 1020) by minimizing the influence of parasitic components of a power supply line on power supplied to a respective stage of the power amplifier (410, 920, 1020), wherein the envelope impedance refers to a ratio of envelope voltage to envelope current at a specific frequency of the power amplification device unit; a power amplifier (410, 920, 1020) configured to amplify an input signal; and first elements (430, 930, 1030) connected to the power amplifier (410, 920, 1020) and configured to reduce envelope impedance of the power amplification device unit (400, 820) for maintaining linearity of the power amplifier (410, 920, 1020) by minimizing the influence of parasitic components of a power supply line on power supplied to a respective stage of the power amplifier (410, 920, 1020), wherein the envelope impedance refers to a ratio of envelope voltage to envelope current at a specific frequency of the power amplification device unit; characterized in that the power amplifier (410, 920, 1020) includes a plurality of stages, and each first element (430, 930, 1030) is a regulator configured to supply power to the power amplifier (410, 920, 1020), wherein each stage of the power amplifier is connected to a respective regulator.
An elongate trailer container, in particular a 40-foot trailer container, characterised in that a car tyre washing system is installed therein, the car tyre washing system comprising at least one cleaning station (5, 7, 8), at least one switch cabinet and a car tyre conveying device with a car tyre loading station, several car tyre conveying stations and a car tyre discharge station, wherein each station (4, 5, 7, 8, 9, 10) forms at least one transport path section of a continuous transport path.
An apparatus for inserting a bone plate to a target site, the apparatus comprising: - a body extending from an upper end to a lower end; - a plate receiving portion configured to receive the bone plate; and - a plate engaging mechanism configured to couple the bone plate to the body, - wherein the body includes a gripping surface configured to be gripped by a user's hand, and - the plate receiving portion is an opening formed proximate the lower end of the body, characterised in that - the body of the apparatus includes an upper portion, an intermediate portion, and a lower portion, wherein the upper and lower portions are separated into two independent halves, wherein the intermediate portion joins the two independent halves of the upper and lower portions, wherein a size of the opening is smaller than a size of the bone plate such that when the bone plate is inserted into the opening, the bone plate causes outward flexure of the lower portion, and wherein squeezing of the upper portion causes outward flexure of the lower portion. - a body extending from an upper end to a lower end; - a plate receiving portion configured to receive the bone plate; and - a plate engaging mechanism configured to couple the bone plate to the body, - wherein the body includes a gripping surface configured to be gripped by a user's hand, and - the plate receiving portion is an opening formed proximate the lower end of the body, characterised in that - the body of the apparatus includes an upper portion, an intermediate portion, and a lower portion, wherein the upper and lower portions are separated into two independent halves, wherein the intermediate portion joins the two independent halves of the upper and lower portions, wherein a size of the opening is smaller than a size of the bone plate such that when the bone plate is inserted into the opening, the bone plate causes outward flexure of the lower portion, and wherein squeezing of the upper portion causes outward flexure of the lower portion.
A method of decoding a coded video bitstream implemented by a video decoder, comprising: receiving, by the video decoder, the coded video bitstream containing reference picture lists; obtaining, by the video decoder, reference pictures for a current picture from the reference picture lists; setting, by the video decoder, a decoder-side motion vector refinement, DMVR, flag to a first value to enable DMVR for a current block of the current picture when the reference pictures are in a same layer as the current picture; setting, by the video decoder, the decoder-side motion vector refinement flag to a second value to disable the DMVR for the current block of the current picture when the reference pictures are in a different layer than the current picture; and refining, by the video decoder, a motion vector corresponding to the current block when the DMVR flag is set to the first value. receiving, by the video decoder, the coded video bitstream containing reference picture lists; obtaining, by the video decoder, reference pictures for a current picture from the reference picture lists; setting, by the video decoder, a decoder-side motion vector refinement, DMVR, flag to a first value to enable DMVR for a current block of the current picture when the reference pictures are in a same layer as the current picture; setting, by the video decoder, the decoder-side motion vector refinement flag to a second value to disable the DMVR for the current block of the current picture when the reference pictures are in a different layer than the current picture; and refining, by the video decoder, a motion vector corresponding to the current block when the DMVR flag is set to the first value.
Pumping system comprising a cylindrical container provided with a piston which is moved by means of a rod ending in a T-shaped profile provided at its lower end with a support fixing two nitinol springs (5, 5'), which have the other two ends rigidly fixed; characterized in that the upper part of the rod T-shaped profile acts at the ends of the stroke a first double microcontact (M 1, M 1 ') and a second double microcontact (M 2, M 2 '), respectively, wherein said double microcontacts control: the closing and opening of the electrovalve which supplies liquid to the cylindrical container, the starting fans (7, 7') which cool the nitinol springs (5, 5'), and disconnection of heating circuit of the nitinol springs (5, 5'), said heating circuits being controlled alternately by relay contacts (k 1, k 2) via a microcontroller.
A method of determining haplotypes in a sample comprising computer implemented steps of: providing a computer readable memory comprising sequence information from a plurality of sequencing reads of a region of interest, said plurality of sequencing reads comprising sequence information from at least two different haplotypes; and partitioning each sequencing read into one of two different haplotypes, thereby determining haplotypes in said sample, wherein said partitioning comprises computer implemented steps of: (a) randomly selecting a first and second sequencing read from a computer readable memory and designating said reads as haplotype 1 and haplotype 2, respectively; (b) assigning each sequencing read in said plurality of sequencing reads to said haplotype 1 or said haplotype 2 based on sequence similarity to either haplotype 1 or haplotype 2; (c) computing a consensus sequence for haplotype 1 and a consensus sequence for haplotype 2 using the sequence reads assigned to each haplotype; and (d) designating said consensus sequences as haplotypes 1 and 2 and repeating steps (b) - (c) until said consensus sequences no longer change. providing a computer readable memory comprising sequence information from a plurality of sequencing reads of a region of interest, said plurality of sequencing reads comprising sequence information from at least two different haplotypes; and partitioning each sequencing read into one of two different haplotypes, thereby determining haplotypes in said sample, wherein said partitioning comprises computer implemented steps of: (a) randomly selecting a first and second sequencing read from a computer readable memory and designating said reads as haplotype 1 and haplotype 2, respectively; (b) assigning each sequencing read in said plurality of sequencing reads to said haplotype 1 or said haplotype 2 based on sequence similarity to either haplotype 1 or haplotype 2; (c) computing a consensus sequence for haplotype 1 and a consensus sequence for haplotype 2 using the sequence reads assigned to each haplotype; and (d) designating said consensus sequences as haplotypes 1 and 2 and repeating steps (b) - (c) until said consensus sequences no longer change. (a) randomly selecting a first and second sequencing read from a computer readable memory and designating said reads as haplotype 1 and haplotype 2, respectively; (b) assigning each sequencing read in said plurality of sequencing reads to said haplotype 1 or said haplotype 2 based on sequence similarity to either haplotype 1 or haplotype 2; (c) computing a consensus sequence for haplotype 1 and a consensus sequence for haplotype 2 using the sequence reads assigned to each haplotype; and (d) designating said consensus sequences as haplotypes 1 and 2 and repeating steps (b) - (c) until said consensus sequences no longer change.
A wire terminating apparatus which allows for determining the quality of a termination of a wire, the apparatus comprising: a wire termination zone; a sensor mounted on the wire terminating apparatus proximate the wire termination zone; wherein the sensor monitors the properties of the termination to determine if the termination is defective, characterised in that the sensor is a thermal sensor, that monitors thermal properties of the termination by collecting thermal data at various times resulting in a time series of images and analysing time varying data so collected. a wire termination zone; a sensor mounted on the wire terminating apparatus proximate the wire termination zone; wherein the sensor monitors the properties of the termination to determine if the termination is defective,
An electromechanical actuator system characterised in that the actuator is intended intended for use in very low temperature situations comprising: a control for an electric motor that is part of an electromechanical actuator, said control including a torque/current regulator (36, 60) and an inverter being part of a normal drive circuit for moving said electric motor to drive the actuator, in response to a command torque signal; and said control further receiving a temperature signal indicative of a temperature being experienced by said electromechanical actuator, and said torque/current regulator being operable to produce, in response to said temperature signal being below a predetermined threshold, a current signal to be sent to said electric motor, through the inverter, which will generate heat but without sufficient torque to drive the actuator. a control for an electric motor that is part of an electromechanical actuator, said control including a torque/current regulator (36, 60) and an inverter being part of a normal drive circuit for moving said electric motor to drive the actuator, in response to a command torque signal; and said control further receiving a temperature signal indicative of a temperature being experienced by said electromechanical actuator, and said torque/current regulator being operable to produce, in response to said temperature signal being below a predetermined threshold, a current signal to be sent to said electric motor, through the inverter, which will generate heat but without sufficient torque to drive the actuator.
A permanent magnet rotating electric machine, comprising: a stator having a plurality of salient stator poles wound with windings; and a rotor separated from the stator by a rotation air gap and held rotatably, wherein the rotor comprises: a rotor iron core having therein a plurality of permanent magnet insertion holes annularly arranged side by side at a distance from one another along a circumferential direction of the rotor; and rare-earth permanent magnets inserted into the plurality of permanent magnet insertion holes such that the rare-earth permanent magnets in the insertion holes adjacent to each other along the circumferential direction of the rotor have different magnetic pole directions from each other, and wherein the rare-earth permanent magnets each comprise a plurality of magnet pieces obtained by dividing the identical sintered rare-earth permanent magnets; and wherein the magnet pieces are arranged side by side and having a structure in which nothing is interposed between the magnet pieces wherein each end of each of the plurality of insertion holes is capped by a removable rotor lid. a stator having a plurality of salient stator poles wound with windings; and a rotor separated from the stator by a rotation air gap and held rotatably, wherein the rotor comprises: a rotor iron core having therein a plurality of permanent magnet insertion holes annularly arranged side by side at a distance from one another along a circumferential direction of the rotor; and rare-earth permanent magnets inserted into the plurality of permanent magnet insertion holes such that the rare-earth permanent magnets in the insertion holes adjacent to each other along the circumferential direction of the rotor have different magnetic pole directions from each other, and wherein the rare-earth permanent magnets each comprise a plurality of magnet pieces obtained by dividing the identical sintered rare-earth permanent magnets; and wherein the magnet pieces are arranged side by side and having a structure in which nothing is interposed between the magnet pieces wherein each end of each of the plurality of insertion holes is capped by a removable rotor lid. a rotor iron core having therein a plurality of permanent magnet insertion holes annularly arranged side by side at a distance from one another along a circumferential direction of the rotor; and rare-earth permanent magnets inserted into the plurality of permanent magnet insertion holes such that the rare-earth permanent magnets in the insertion holes adjacent to each other along the circumferential direction of the rotor have different magnetic pole directions from each other, and wherein the rare-earth permanent magnets each comprise a plurality of magnet pieces obtained by dividing the identical sintered rare-earth permanent magnets; and wherein the magnet pieces are arranged side by side and having a structure in which nothing is interposed between the magnet pieces wherein each end of each of the plurality of insertion holes is capped by a removable rotor lid.
An isolated composite comprising resilin and a polysaccharide, the resilin comprising a binding domain of said polysaccharide, said binding domain being heterologous to said resilin.
A gas intake device, for introducing said gases on the cylinder head of a thermal engine of an automotive vehicle, comprising a heat exchanger, an inlet housing of the heat exchanger and an outlet housing of the heat exchanger, the heat exchanger is a structural element of the device, the inlet housing and the outlet housing being fixed on the heat exchanger, and the outlet housing opening into cylinders of the thermal engine by means of said cylinder head; characterized in that the device comprises a manifold for introducing gases into the cylinder head, wherein the manifold forms the outlet housing of the heat exchanger, and also a valve for feeding gases into the manifold, opening into the manifold directly or indirectly through the heat exchanger, wherein the valve and the manifold are integrated as a unit module intended to be fixed on the engine cylinder head, said module being fixed on the heat exchanger, and wherein the valve is a double valve, comprising an inlet conduct, a direct outlet conduct, opening into the manifold, and an indirect outlet conduct (1 Oc), opening into the inlet housing of the heat exchanger.
A voltammetric method for determining a concentration of an analyte in a sample, the voltammetric method comprising: applying a pulse sequence to the sample, the pulse sequence comprising at least two duty cycles having excitation/relaxation time ratios from 0.3 to 0.2, wherein each of the at least two duty cycles includes a relaxation, and the relaxations of the at least two duty cycles include a current reduction to at least one-half the current flow at the excitation maxima; measuring resulting currents from the at least two duty cycles; and determining the concentration of the analyte in the sample from the resulting currents. applying a pulse sequence to the sample, the pulse sequence comprising at least two duty cycles having excitation/relaxation time ratios from 0.3 to 0.2, wherein each of the at least two duty cycles includes a relaxation, and the relaxations of the at least two duty cycles include a current reduction to at least one-half the current flow at the excitation maxima; measuring resulting currents from the at least two duty cycles; and determining the concentration of the analyte in the sample from the resulting currents.
A system for treating a patient having a psychiatric disorder, the system comprising: a memory; and a processor, characterized by the processor being configured by the memory to perform the steps of: recording an event experienced by the patient being recounted by the patient; parsing the event into a plurality of stimuli for subsequent playback to the patient; generating a mental state metric for each of the one or more stimuli, wherein each mental state metric is indicative of a mental state of the patient at a time when an associated stimulus was being recounted; and controlling a sensory environment of the patient so as to administer exposure therapy to the patient by causing a selected one of the stimuli to be played back to the patient one or more times; wherein a mental state of the patient is monitored as the selected one of the stimuli is played back one or more times during administration of the exposure therapy to the patient; and the exposure therapy that is administered to the patient is varied in correspondence to the monitored mental state of the patient by selecting a different one of the stimuli for subsequent play back to the patient based on the monitored mental state of the patient. a memory; and a processor, characterized by the processor being configured by the memory to perform the steps of: recording an event experienced by the patient being recounted by the patient; parsing the event into a plurality of stimuli for subsequent playback to the patient; generating a mental state metric for each of the one or more stimuli, wherein each mental state metric is indicative of a mental state of the patient at a time when an associated stimulus was being recounted; and controlling a sensory environment of the patient so as to administer exposure therapy to the patient by causing a selected one of the stimuli to be played back to the patient one or more times; wherein a mental state of the patient is monitored as the selected one of the stimuli is played back one or more times during administration of the exposure therapy to the patient; and the exposure therapy that is administered to the patient is varied in correspondence to the monitored mental state of the patient by selecting a different one of the stimuli for subsequent play back to the patient based on the monitored mental state of the patient. recording an event experienced by the patient being recounted by the patient; parsing the event into a plurality of stimuli for subsequent playback to the patient; generating a mental state metric for each of the one or more stimuli, wherein each mental state metric is indicative of a mental state of the patient at a time when an associated stimulus was being recounted; and controlling a sensory environment of the patient so as to administer exposure therapy to the patient by causing a selected one of the stimuli to be played back to the patient one or more times;
Reconfigurable RF front-end circuit for a multi-beam array fed reflector antenna system having a first plurality of N B input beam signals and a second plurality of N E radiating elements, the front-end circuit comprising a reconfigurable beam forming network (LLRBFN), having a set of N B input ports and distributing each input port signal to a plurality of N A output ports with phase and amplitude control; a plurality of N A high power amplifiers (VB-HPA) connected to the plurality of N A output ports of the reconfigurable beam forming network (LLRBFN); an output network (ONET, OSN), arranged for recombining signals output by the high power amplifiers (VB-HPA) and feeding the recombined signals to the second plurality of N E radiating elements, wherein the high power amplifiers (VB-HPA) are variable bias high power amplifiers (VB-HPA), further comprising a set of channel amplifiers each connected to one of the set of N B input ports of the reconfigurable beam forming network (LLRBFN).
A convex conical refining plate (20, 40, 140) segment for a mechanical refiner of lignocellulosic material comprising: a convex conical refining surface on a substrate, wherein the refining surface is adapted to face a concave conical refining surface of an opposing refiner plate; the convex conical refining surface including bars and grooves between the bars, each bar being at an angle with respect to a radial line corresponding to the bar, characterized in that the angle at the inlet to the bars is within 20 degrees of the radial line, the angle increases at least 15 degrees in a radially outward direction along the bar, and the angle is a holdback angle in a range of 10 to 20 degrees at an outer periphery of the bars, and that the bars each include a leading sidewall having an irregular surface, wherein the irregular surface includes protrusions extending outwardly from the sidewall toward a sidewall on an adjacent bar or recesses extending inwardly from the sidewall away from a sidewall on an adjacent bar, and the irregular surface extends from at or near the outer periphery of the refining surface, and extends radially inward along the bar. a convex conical refining surface on a substrate, wherein the refining surface is adapted to face a concave conical refining surface of an opposing refiner plate;