mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a cathode assembly, wherein the cathode assembly, comprises: at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises means for applying voltages to the width bias electrodes and to the length bias electrodes so that the electrons are focused during operation; characterized in that the first flat filament is sized to generate focal spots on a target within a first size range and the second flat filament is sized to generate focal spots on the target in a second size range that partially overlaps with the first size range. a cathode assembly, wherein the cathode assembly, comprises: at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises means for applying voltages to the width bias electrodes and to the length bias electrodes so that the electrons are focused during operation; characterized in that the first flat filament is sized to generate focal spots on a target within a first size range and the second flat filament is sized to generate focal spots on the target in a second size range that partially overlaps with the first size range.
An electro-acoustic stimulation ("EAS") device comprising: a sound processor configured to direct a cochlear implant to apply electrical stimulation to a patient, the electrical stimulation representative of audio content included in a first frequency band, and direct a receiver to apply acoustic stimulation to the patient, the acoustic stimulation representative of audio content included in a second frequency band; characterized by a volume control subsystem communicatively coupled to the sound processor and configured to facilitate, throughout the day, independent control, by the patient, of a volume associated with the electrical stimulation and a volume associated with the acoustic stimulation, wherein the sound processor and the volume control subsystem are implemented by a single device or wherein the volume control subsystem is implemented as a remote control device, and wherein the volume control subsystem comprises a volume control facility (306, 704) which comprises a sensor which is communicatively coupled to a single volume control mechanism and which is for detecting the time of day so as to cause the volume control mechanism to be associated with the acoustic stimulation during a predetermined time period in the morning and with electrical stimulation during the remainder of the day.
A connector, in particular a USB type-C connector, configured to be mounted on a printed circuit board, PCB, the connector comprising: a mid-plate configured to be electrically connected to a ground terminal of the PCB and comprising a metallic material; a plurality of upper terminals situated above the mid-plate; a plurality of lower terminals situated under the mid-plate; an upper end insulation member situated on the mid-plate while supporting the plurality of upper terminals; a lower end insulation member situated under the mid-plate while supporting the plurality of lower terminals; an insulation body that supports the upper end insulation member and lower end insulation member; a metallic shell configured to be electrically connected to the ground terminal of the PCB, said metallic shell surrounding the insulation body; an electromagnetic shielding pad electrically connected to the mid-plate, wherein an insulation material extending from the insulation body is filled between said electromagnetic shielding pad and the plurality of terminals (105a; 105b); and characterized in that: the electromagnetic shielding pad is physically connected to the mid-plate; wherein the electromagnetic shielding pad does not make physical contact with the shell. a mid-plate configured to be electrically connected to a ground terminal of the PCB and comprising a metallic material; a plurality of upper terminals situated above the mid-plate; a plurality of lower terminals situated under the mid-plate; an upper end insulation member situated on the mid-plate while supporting the plurality of upper terminals; a lower end insulation member situated under the mid-plate while supporting the plurality of lower terminals; an insulation body that supports the upper end insulation member and lower end insulation member; a metallic shell configured to be electrically connected to the ground terminal of the PCB, said metallic shell surrounding the insulation body; an electromagnetic shielding pad electrically connected to the mid-plate, wherein an insulation material extending from the insulation body is filled between said electromagnetic shielding pad and the plurality of terminals (105a; 105b); and characterized in that: the electromagnetic shielding pad is physically connected to the mid-plate; wherein the electromagnetic shielding pad does not make physical contact with the shell. the electromagnetic shielding pad is physically connected to the mid-plate; wherein the electromagnetic shielding pad does not make physical contact with the shell.
A rotation detecting apparatus which comprises: a magnetic sensor array including a plurality of combined sensor element groups arranged on a single semiconductor chip, each group including four sensor elements (5a - 5d), each of the sensor elements being in the form of a magnetic transistor having a drain region that is divided into two drain segments (D1, D2) spaced apart from each other to form respective drain terminals, the four sensor elements (5a-5d) of each combined sensor element group being so arranged as to be oriented vertically and horizontally in four directions and connected through the drain terminals (D1, D2) parallel to each other; and a magnet rotatable in face-to-face relation with the magnetic sensor array. a magnetic sensor array including a plurality of combined sensor element groups arranged on a single semiconductor chip, each group including four sensor elements (5a - 5d), each of the sensor elements being in the form of a magnetic transistor having a drain region that is divided into two drain segments (D1, D2) spaced apart from each other to form respective drain terminals, the four sensor elements (5a-5d) of each combined sensor element group being so arranged as to be oriented vertically and horizontally in four directions and connected through the drain terminals (D1, D2) parallel to each other; and a magnet rotatable in face-to-face relation with the magnetic sensor array.
A method for generating a ground truth data set for a virtual assistant, wherein the elements of the ground truth data set comprise possible user queries to the virtual assistant, wherein the method can be executed at least partially on a computer unit and comprises the following steps: • Providing queries from users to the computer unit, wherein said queries are such as are or were intended for the virtual assistant; • Analysing the queries with regard to their suitability for inclusion in the ground truth data; wherein the analysis is performed by at least two virtual editors, wherein each of the virtual editors prepares its own analysis result for each query; • Implementing means for evaluating the results of analysis on the computer unit, wherein the means for evaluating calculate a value TS that represents a probability that the query is suitable for the ground truth data set, wherein the calculation is carried out based on the results of analysis of the at least two virtual editors for the respective query; • Comparing the calculated value TS with a predefined threshold value TH; • Adding the query to the ground truth data set if the calculated value TS is greater than the threshold TH, characterized in that the virtual editors are implemented by an artificial intelligence which was trained based on the input of human editors, in particular a virtual editor was only trained based on the inputs of a single human editor. • Providing queries from users to the computer unit, wherein said queries are such as are or were intended for the virtual assistant; • Analysing the queries with regard to their suitability for inclusion in the ground truth data; wherein the analysis is performed by at least two virtual editors, wherein each of the virtual editors prepares its own analysis result for each query; • Implementing means for evaluating the results of analysis on the computer unit, wherein the means for evaluating calculate a value TS that represents a probability that the query is suitable for the ground truth data set, wherein the calculation is carried out based on the results of analysis of the at least two virtual editors for the respective query; • Comparing the calculated value TS with a predefined threshold value TH; • Adding the query to the ground truth data set if the calculated value TS is greater than the threshold TH,
A method of characterizing spatial-temporal dynamics of a medium excitable for deformation, the evaluation system implemented method comprising: - defining an elastic model of the medium; - imaging the medium at consecutive points in time to obtain a series of images; - determining shifts of structures of the medium between the images of the series; - adapting a dynamic description of a temporal development of spatial deformations of the elastic model to match the shifts of the structures; - identifying, from the dynamic description, temporal developments of rate of deformation patterns in the medium; and - imaging electrical activity of the medium by means of the rate of deformation patterns, wherein the rate of deformation patterns are transformed into patterns of electrical activity by: - defining an electrical model of the medium; - coupling the elastic model of the medium to the electrical model of the medium; and - adapting a temporal development of the electrical activity of the electrical model of the medium to the temporal developments of the rate of deformation patterns in the coupled elastic model of the medium. - defining an elastic model of the medium; - imaging the medium at consecutive points in time to obtain a series of images; - determining shifts of structures of the medium between the images of the series; - adapting a dynamic description of a temporal development of spatial deformations of the elastic model to match the shifts of the structures; - identifying, from the dynamic description, temporal developments of rate of deformation patterns in the medium; and - imaging electrical activity of the medium by means of the rate of deformation patterns, wherein the rate of deformation patterns are transformed into patterns of electrical activity by: - defining an electrical model of the medium; - coupling the elastic model of the medium to the electrical model of the medium; and - adapting a temporal development of the electrical activity of the electrical model of the medium to the temporal developments of the rate of deformation patterns in the coupled elastic model of the medium.
A vehicle interior assembly comprising a class A visible surface material having a first layer formed from a thermal plastic olefin and a second layer formed from a foam, characterized in that the foam having a thickness of less than 6 mm and a density of less than 72.1 kg/m 3; and in that the vehicle interior assembly further comprises: - a substrate supporting the class A visible surface material, wherein the substrate defines an opening for receiving a drop-in chute having an outer surface configured to engage the class A visible surface material; and - a retention assembly for securing the outer surface of the drop-in chute to the substrate, - wherein the retention assembly comprises a profile extending from a perimeter of the drop-in chute, the profile is configured to engage a corresponding recess within the substrate as the drop-in chute is press-fit into the opening of the substrate, and contact between an outwardly facing surface of the profile and an inwardly facing surface of the recess blocks movement of the drop-in chute relative to the substrate in a direction toward the class A visible surface material. - a substrate supporting the class A visible surface material, wherein the substrate defines an opening for receiving a drop-in chute having an outer surface configured to engage the class A visible surface material; and - a retention assembly for securing the outer surface of the drop-in chute to the substrate, - wherein the retention assembly comprises a profile extending from a perimeter of the drop-in chute, the profile is configured to engage a corresponding recess within the substrate as the drop-in chute is press-fit into the opening of the substrate, and contact between an outwardly facing surface of the profile and an inwardly facing surface of the recess blocks movement of the drop-in chute relative to the substrate in a direction toward the class A visible surface material.
An optically diffusive plastic comprising: 40 to 94.9 mass% of a polymer resin matrix; 5 to 50 mass% of a glass filler; and 0.1 to 10 mass% of a light diffusing component; wherein the difference between refractive index of the polymer resin matrix and refractive index of the glass filler is 0.002 to 0.02; wherein a 1 mm thick sample of the optically diffusive plastic comprises DLD value of greater than or equal to 1° as measured by goniophotometry, and a total transmittance of greater than or equal to 40% for incident light having a wavelength of 360 nm to 750 nm in air as determined by ASTM D1003 Procedure A, using CIE standard illuminant D65, and at least one of wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023. 40 to 94.9 mass% of a polymer resin matrix; 5 to 50 mass% of a glass filler; and 0.1 to 10 mass% of a light diffusing component; wherein the difference between refractive index of the polymer resin matrix and refractive index of the glass filler is 0.002 to 0.02; wherein a 1 mm thick sample of the optically diffusive plastic comprises DLD value of greater than or equal to 1° as measured by goniophotometry, and a total transmittance of greater than or equal to 40% for incident light having a wavelength of 360 nm to 750 nm in air as determined by ASTM D1003 Procedure A, using CIE standard illuminant D65, and at least one of wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023. wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023.
A power tool housing, comprising: first and second housing shells (12 1, 12 2) that each have an outer wall that encases inner surfaces, wherein the housing shells (12 1, 12 2) matably attach to each other and define an interior motor cavity that is sized and configured to encase at least a motor associated with a power train for a power tool, characterised in that each housing shell (12 1, 12 2) is a substantially rigid molded shell body, and wherein each housing shell (12 1, 12 2) includes a plurality of axially spaced apart overmold motor mount member portions comprising a resilient material that are directly, integrally attached to at least one inner surface of the respective housing shell (12 1, 12 2) wherein one or sets of the axially-spaced apart overmold motor mount member portions (130a 1) of the first housing shell (12 1) are aligned with one or sets of motor mount member portions (130a 2) of the second housing shell (12 2) and define a plurality of axially spaced apart overmold motor mount members (130a 1 and 130a 2), and wherein the plurality of motor mount members is at least two axially spaced apart, curved motor mount members, each defined by cooperating overmold motor mount member portions, and wherein the overmold motor mount member portions extend circumferentially between about 90-180 degrees about the interior motor cavity. first and second housing shells (12 1, 12 2) that each have an outer wall that encases inner surfaces, wherein the housing shells (12 1, 12 2) matably attach to each other and define an interior motor cavity that is sized and configured to encase at least a motor associated with a power train for a power tool, characterised in that each housing shell (12 1, 12 2) is a substantially rigid molded shell body, and wherein each housing shell (12 1, 12 2) includes a plurality of axially spaced apart overmold motor mount member portions comprising a resilient material that are directly, integrally attached to at least one inner surface of the respective housing shell (12 1, 12 2) wherein one or sets of the axially-spaced apart overmold motor mount member portions (130a 1) of the first housing shell (12 1) are aligned with one or sets of motor mount member portions (130a 2) of the second housing shell (12 2) and define a plurality of axially spaced apart overmold motor mount members (130a 1 and 130a 2), and wherein the plurality of motor mount members is at least two axially spaced apart, curved motor mount members, each defined by cooperating overmold motor mount member portions, and wherein the overmold motor mount member portions extend circumferentially between about 90-180 degrees about the interior motor cavity.
A portable power source comprising: a housing defining a battery support and a power outlet, a circuit supported by the housing and including an input terminal on the battery support, an output terminal on the power outlet, and an inverter electrically connected between the input terminal and the output terminal, a battery power source including a battery housing supported on the battery support, a battery cell, and a battery terminal connected to the battery cell and electrically connectable to the input terminal, wherein power is transferrable from the battery cell to the circuit via the battery terminal and the input terminal to be output through the power outlet, and a frame connected to the housing and extending beyond a periphery of the housing and the supported battery power source. a housing defining a battery support and a power outlet, a circuit supported by the housing and including an input terminal on the battery support, an output terminal on the power outlet, and an inverter electrically connected between the input terminal and the output terminal, an input terminal on the battery support, an output terminal on the power outlet, and an inverter electrically connected between the input terminal and the output terminal, a battery power source including a battery housing supported on the battery support, a battery cell, and a battery terminal connected to the battery cell and electrically connectable to the input terminal, wherein power is transferrable from the battery cell to the circuit via the battery terminal and the input terminal to be output through the power outlet, and a battery housing supported on the battery support, a battery cell, and a battery terminal connected to the battery cell and electrically connectable to the input terminal, wherein power is transferrable from the battery cell to the circuit via the battery terminal and the input terminal to be output through the power outlet, and a frame connected to the housing and extending beyond a periphery of the housing and the supported battery power source.