mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device including a thin-film transistor, the device comprising: a gate electrode which has been formed on a substrate as a part of the thin-film transistor; a gate insulating layer which has been formed on the gate electrode; an oxide semiconductor layer which has been formed on the gate insulating layer; a source electrode and a drain electrode which are arranged on the oxide semiconductor layer as parts of the thin-film transistor; a first layer which has been formed on the oxide semiconductor layer and the source and drain electrodes, the first layer being made of silicon dioxide or silicon nitride; a second layer which has been formed on the first layer, the second layer being made of an acrylic resin, an SOG material, a silicone resin, an ester polymer resin, or a resin including a silanol group, a CO-OR group or an Si-OH group; and a third layer which has been formed on the second layer, the third layer being made of silicon dioxide, silicon nitride, or silicon oxynitride. a gate electrode which has been formed on a substrate as a part of the thin-film transistor; a gate insulating layer which has been formed on the gate electrode; an oxide semiconductor layer which has been formed on the gate insulating layer; a source electrode and a drain electrode which are arranged on the oxide semiconductor layer as parts of the thin-film transistor; a first layer which has been formed on the oxide semiconductor layer and the source and drain electrodes, the first layer being made of silicon dioxide or silicon nitride; a second layer which has been formed on the first layer, the second layer being made of an acrylic resin, an SOG material, a silicone resin, an ester polymer resin, or a resin including a silanol group, a CO-OR group or an Si-OH group; and a third layer which has been formed on the second layer, the third layer being made of silicon dioxide, silicon nitride, or silicon oxynitride.
Treatment bed with a frame, a hip cushion section for placement of a patient's hip area, an upper body cushion section for placement of a patient's upper body, and at least one support element located in the area of the hip cushion section and which can be locked against the hip cushion section or is immobile against the hip cushion section, distinguished by the fact that the hip cushion section in the treatment bed's operating state is firmly attached to the frame, and that the upper body cushion section opposite the hip cushion section can be pushed along a slide axis by the patient's bodily force when the patient puts pressure on the support element.
A method for an electronic device comprising: without a user fixating on a target, capturing eye movement of the at least one eyeball of the user to generate an eye motions signal, the captured eye movement including voluntary eye movement and involuntary eye movement (401A-401F,402A-402E,403A-403E); filtering out the voluntary eye movement from the captured eye movement and using a tremor component as single involuntary eye movement to form captured tremors linked to the neuro-musculo-retinal anatomy of the user, wherein the filtering includes filtering the eye motions signal with a band-pass filter response associated with a frequency range of an involuntary eye-motion signal associated with involuntary eye micro motions; generating a unique pattern to identify the user based on the captured tremors; storing the unique pattern into a secured non-volatile storage device; and authenticating the user with the electronic device based on the stored unique pattern. without a user fixating on a target, capturing eye movement of the at least one eyeball of the user to generate an eye motions signal, the captured eye movement including voluntary eye movement and involuntary eye movement (401A-401F,402A-402E,403A-403E); filtering out the voluntary eye movement from the captured eye movement and using a tremor component as single involuntary eye movement to form captured tremors linked to the neuro-musculo-retinal anatomy of the user, wherein the filtering includes filtering the eye motions signal with a band-pass filter response associated with a frequency range of an involuntary eye-motion signal associated with involuntary eye micro motions; generating a unique pattern to identify the user based on the captured tremors; storing the unique pattern into a secured non-volatile storage device; and authenticating the user with the electronic device based on the stored unique pattern.
A slurry supply apparatus comprising a blend module that can combine two or more flowing component streams (C, D) to form a blended slurry in a pipe, wherein said blend module comprises a pipe (212, 214) for each component stream (C, D) and at least one flow controller in each of at least two of the component pipes (212, 214) to control the flow rate of the components and wherein said component pipes (212, 214) are connected and combined into a single pipe to form the blended slurry, wherein said blend module further comprises a pump and said two or more component pipes (212, 214) are configured to flow two or more component streams (C, D) selected from the group consisting of raw slurry, water, one or more chemical components, one or more chemical components blended with water, partially blended slurry, fully blended slurry, partially blended chemical blend and fully blended chemical blend, and wherein upstream of said blend module pump is a first junction of pipes and a second junction of said component pipes wherein said first junction is closer to said pump, in said first junction a first stream comprising one or more chemical components and water can be combined with a second stream comprising raw slurry, said first stream flowing from said second junction wherein at said second junction a third and a fourth stream (A, B) can be combined, wherein said third stream comprises water and said fourth stream comprises one or more chemical components to make said first stream characterized in that further said at least two component pipes (212, 214) are connected and combined into a single pipe upstream of and within 60.96 cm (2 foot) of said blend module pump.
A lid (40, 40c) for a container for storing a smokeless tobacco product, the lid (40, 40c) comprising: a laterally-extending wall having opposing first and second surfaces (44, 46) and defining a periphery, the laterally-extending wall having a central axis extending perpendicularly to the first and second surfaces (44, 46); a sidewall extending from the second surface about the periphery of the laterally-extending wall, with the laterally-extending wall and the sidewall being formed of a polymeric material; a metallic cladding (80, 80c) comprising a metallic sheet, said metallic sheet comprising a raised ridge adjacent to a periphery thereof, the metallic cladding (80, 80c) engaged with the laterally-extending wall so as to extend laterally across the first surface, wherein the sidewall includes a groove receiving a peripheral edge of the metallic cladding (80c said lid being characterised in that: said groove is recessed in an exterior surface of said sidewall. a laterally-extending wall having opposing first and second surfaces (44, 46) and defining a periphery, the laterally-extending wall having a central axis extending perpendicularly to the first and second surfaces (44, 46); a sidewall extending from the second surface about the periphery of the laterally-extending wall, with the laterally-extending wall and the sidewall being formed of a polymeric material; a metallic cladding (80, 80c) comprising a metallic sheet, said metallic sheet comprising a raised ridge adjacent to a periphery thereof, the metallic cladding (80, 80c) engaged with the laterally-extending wall so as to extend laterally across the first surface, wherein the sidewall includes a groove receiving a peripheral edge of the metallic cladding (80c said lid being characterised in that: said groove is recessed in an exterior surface of said sidewall.
Medical pumping device including a pump comprising - a pumping chamber having a variable volume, - an inlet communicating with the pumping chamber and comprising a valve, - an outlet communicating with the pumping chamber and comprising a valve, - an actuator adapted to change the volume of the pumping chamber, - a pumping membrane functionally linked to the actuator, - a fluidic pathway comprising said inlet, said pumping chamber, said outlet and a downstream line situated downstream of the outlet valve, - a pressure sensor measuring the pressure between the valves of said pathway, - processing means processing the received pressure data from the pressure sensor during an actuation cycle to detect at least one dysfunction, wherein the actuation cycle is initiated by a first partial push movement of the pumping membrane inducing a first positive peak of pressure followed by a full pull movement of the pumping membrane inducing a negative peak of pressure and a release so that the pumping membrane comes back to a rest position inducing a second positive peak of pressure. - a pumping chamber having a variable volume, - an inlet communicating with the pumping chamber and comprising a valve, - an outlet communicating with the pumping chamber and comprising a valve, - an actuator adapted to change the volume of the pumping chamber, - a pumping membrane functionally linked to the actuator, - a fluidic pathway comprising said inlet, said pumping chamber, said outlet and a downstream line situated downstream of the outlet valve, - a pressure sensor measuring the pressure between the valves of said pathway, - processing means processing the received pressure data from the pressure sensor during an actuation cycle to detect at least one dysfunction,
A motor vehicle having an imaging apparatus comprising at least one camera (120L, 120R), the apparatus being configured to provide a wade image to an occupant of the vehicle, characterised in the imaging apparatus being operable automatically to reposition the camera to provide the wade image and the image being an image of at least a portion of an exterior surface of the vehicle that is exposed to liquid when wading, the wade image (121L, 121R) being arranged to allow the occupant to determine whether the level of the liquid is below a prescribed level.
An electromagnetic actuator defining an axis of symmetry Z and an infinite number of radial planes disposed in a fan arrangement around the axis of symmetry Z, the electromagnetic actuator comprising at least one inductor with a winding (lb), a movable armature, a driving disc and elastic means, the armature being biased, at rest, by the elastic means against or away from the driving disc and, when the coil (lb) is supplied with current, the armature is moved axially towards the inductor against the elastic means away from or against the driving disc, the electromagnetic actuator also comprising at least one measuring module comprising a magnetic field sensor, such as a Hall effect sensor, disposed in a radial plan Prv and defining a direction of sensitivity B to magnetic fields, characterized in that the measuring module comprises at least one permanent magnet (42, 43; D42, D43) which moves relative to the magnetic field sensor so as to generate a magnetic field detectable by the magnetic field sensor, and in that the direction of sensitivity B of the magnetic field sensor is perpendicular to the radial plane Prv in which the magnetic field sensor is positioned.
A method for determining ophthalmic article feasibility, the method comprising: acquiring a first input indicative of optical criteria associated with a lens via a user interface; acquiring a second input indicative of a lens selection via the user interface; identifying one or more frames; determining, using processing circuitry, whether each frame of the one or more frames and the lens selection are physically compatible by fit simulation performed based on three dimensional cutout data, wherein the fit simulation is determined based on the first input, the second input, and the identified one or more frames; and providing a feasibility indication to a user via the user interface for each of the one or more frames based on the determination. acquiring a first input indicative of optical criteria associated with a lens via a user interface; acquiring a second input indicative of a lens selection via the user interface; identifying one or more frames; determining, using processing circuitry, whether each frame of the one or more frames and the lens selection are physically compatible by fit simulation performed based on three dimensional cutout data, wherein the fit simulation is determined based on the first input, the second input, and the identified one or more frames; and providing a feasibility indication to a user via the user interface for each of the one or more frames based on the determination.
A method of transmitting and receiving data in a wireless network, the method comprising: at a high-throughput station, transmitting first data via a bonded channel which is formed by channel bonding first and second adjacent channels; and at the high-throughput station, receiving second data via each of the first and the second adjacent channels, characterised in that the second data is a clear-to-send, CTS, frame or a request-to-send, RTS, frame and has a format different from that of the first data, and in that the second data format is a legacy format. at a high-throughput station, transmitting first data via a bonded channel which is formed by channel bonding first and second adjacent channels; and at the high-throughput station, receiving second data via each of the first and the second adjacent channels, characterised in that the second data is a clear-to-send, CTS, frame or a request-to-send, RTS, frame and has a format different from that of the first data, and in that the second data format is a legacy format.
A method for manufacturing an embossing roller provided with a plurality of protuberances (P; P1; P2) arranged according to a geometrical distribution, each having substantially the shape of a truncated pyramid with a major base closer to the axis of the roller and a top surface (S; SA; SB) further away from the axis of the roller, and side surfaces generated by chip removal using a hob, characterized in that chip-removal machining of said top surfaces (S; SA; SB) of the protuberances (P; P1; P2) is completed by said hob, without further subsequent grinding, said hob shaping at least some of said top surfaces (S; SA; SB) with rounded edges of radiusing to at least some of the side surfaces of said protuberances.
A power generating element comprising: a pedestal formed in a frame shape in plan view; a vibrating body provided inside the pedestal; at least three first bridge supporting portions (30A to 30D), each of the first bridge supporting portions (30A; 30B; 30C; 30D) extending along a first extending axis and configured to arrange the vibrating body to be supported on the pedestal; and a charge generating element that generates a charge at the time of displacement of the vibrating body, wherein the first extending axes of a pair of the first bridge supporting portions (30A to 30D) adjacent to each other in a circumferential direction with the vibrating body defined as a center in plan view form a predetermined angle, the charge generating element includes a plurality of first electrode layers (E11 to E44) being electrically independent from each other, and at least one of the first electrode layers (E11 to E44) is arranged on each of the first bridge supporting portions (30A to 30D), characterised in that the vibrating body includes: a first weight body; a second weight body; and at least three second bridge supporting portions (130A to 130D) coupling the first weight body with the second weight body, wherein the first weight body and the second weight body are spaced apart from each other, and an additional weight body is provided on a lower surface of the second weight body. a pedestal formed in a frame shape in plan view; a vibrating body provided inside the pedestal; at least three first bridge supporting portions (30A to 30D), each of the first bridge supporting portions (30A; 30B; 30C; 30D) extending along a first extending axis and configured to arrange the vibrating body to be supported on the pedestal; and a charge generating element that generates a charge at the time of displacement of the vibrating body, wherein the first extending axes of a pair of the first bridge supporting portions (30A to 30D) adjacent to each other in a circumferential direction with the vibrating body defined as a center in plan view form a predetermined angle, the charge generating element includes a plurality of first electrode layers (E11 to E44) being electrically independent from each other, and at least one of the first electrode layers (E11 to E44) is arranged on each of the first bridge supporting portions (30A to 30D), characterised in that the vibrating body includes: a first weight body; a second weight body; and at least three second bridge supporting portions (130A to 130D) coupling the first weight body with the second weight body, wherein the first weight body and the second weight body are spaced apart from each other, and an additional weight body is provided on a lower surface of the second weight body.
A lens assembly, comprising a first lens, a second lens, a third lens, a fourth lens, and a fifth lens from an object side of the lens assembly to an image side of the lens assembly in turn, wherein the first lens is of a negative refracting power, an object side of the first lens is of a convexity, an image side of the first lens is of a concavity; the second lens is of a positive refracting power, an image side of the second lens is of a convexity; the third lens is of a negative refracting power, an image side of the third lens is of a concavity; the fourth lens is of a positive refracting power, an image side of the fourth lens is of a convexity; and the fifth lens is of a negative refracting power, an object side of the fifth lens is of a convexity, an image side of the fifth lens is of a concavity, and the object side is provided with one inflection point, a diaphragm is arranged between the first lens and the second lens, characterized in that, the lens assembly meets the following formulas: 0 < R 3 + R 4 / R 3 − R 4 < 1.2; and 7 < T 12 / T 23 < 25, wherein R3 represents a curvature radius of the object side of the second lens, R4 represents a curvature radius of the image side of the second lens, T12 represents a distance between the first lens and the second lens in a direction of an optical axis, and T23 represents a distance between the second lens and the third lens in the direction of the optical axis. wherein R3 represents a curvature radius of the object side of the second lens, R4 represents a curvature radius of the image side of the second lens, T12 represents a distance between the first lens and the second lens in a direction of an optical axis, and T23 represents a distance between the second lens and the third lens in the direction of the optical axis.
A laundry processor having a pipeline connection device, wherein a pipeline (9, 10) comprises a first pipeline wall and a second pipeline wall joined to each other along a pipeline extending direction, wherein the connection device comprises a first hoop and a second hoop spanning an outer wall of the pipeline (9, 10) and connected to each other to tightly compress the wall of the pipeline (9, 10), the first hoop comprises a first slot, an end portion of the first pipeline wall close to the second pipeline wall has a first flange, and an end portion of the second pipeline wall close to the first pipeline wall has a second flange, and the first flange and the second flange are both accommodated in the first slot, characterized in that: the pipeline (9, 10) further comprises a third pipeline wall joined to the first pipeline wall and vertical to the pipeline extending direction; and a fourth pipeline wall joined to the third pipeline wall along the pipeline extending direction and joined to the second pipeline wall along a direction vertical to the pipeline extending direction; the second hoop comprises a second slot, an end portion of the third pipeline wall close to the fourth pipeline wall has a third flange; an end portion of the fourth pipeline wall close to the third pipeline wall has a fourth flange; and the third flange and the fourth flange are both accommodated in the second slot.
A method for inferring a plantar pressure line, said plantar pressure line corresponding to the time evolution of the position of the barycenter of plantar pressures during the movement of an individual and including a plurality of successive positions of said barycenter of plantar pressures for a foot of said individual, said method being implemented by one or several microprocessors from movement data generated by at least one inertial unit coupled to a shoe worn by said individual or said individual's foot, said at least one inertial unit being configured to generate movement data for a plurality of instants of a stance phase of a foot of said individual, said method including the following steps: - loading a correlation model, said correlation model defining a relationship between a plurality of data obtained from plantar pressure sensors and a plurality of foot angle values relative to a predetermined reference frame, said relationship enabling the determination of the position of the barycenter of plantar pressures at each instant of a stance phase; - calculating foot angle values relative to the predetermined reference frame, from the movement data generated by the at least one inertial unit, over at least two instants of the stance phase of the foot of said individual; and - inferring a plurality of successive positions of the barycenter of plantar pressures to form the plantar pressure line of the said individual's foot, from the angle values calculated over the at least two instants of the stance phase of the foot and from the correlation model. - loading a correlation model, said correlation model defining a relationship between a plurality of data obtained from plantar pressure sensors and a plurality of foot angle values relative to a predetermined reference frame, said relationship enabling the determination of the position of the barycenter of plantar pressures at each instant of a stance phase; - calculating foot angle values relative to the predetermined reference frame, from the movement data generated by the at least one inertial unit, over at least two instants of the stance phase of the foot of said individual; and - inferring a plurality of successive positions of the barycenter of plantar pressures to form the plantar pressure line of the said individual's foot, from the angle values calculated over the at least two instants of the stance phase of the foot and from the correlation model.