mhurhangee/ep-ind-claims huggingface dataset:
A head-mounted display apparatus, comprising: a head-mounted support; an optical system (302, 304) attached to the head-mounted support, wherein the optical system comprises a display having a central axis (204, 410, 428), wherein the display is configured to display images that are viewable from a viewing location; an infrared light source configured to illuminate the viewing location with infrared light such that infrared light is reflected from the viewing location as reflected infrared light; a camera configured to image the viewing location by collecting the reflected infrared light; a sensor configured to generate sensor data that relates to motion of the HMD apparatus; and a computer configured to determine a gaze axis based on one or more images of the viewing location obtained by the camera, control the display to display images based on the sensor data, determine a target object in the displayed images based on the gaze axis, and control the display to move the target object towards the central axis, wherein moving the target object towards the central axis comprises moving the target object at a tracking rate and adjusting the tracking rate based on a difference between the gaze axis and the central axis. a head-mounted support; an optical system (302, 304) attached to the head-mounted support, wherein the optical system comprises a display having a central axis (204, 410, 428), wherein the display is configured to display images that are viewable from a viewing location; an infrared light source configured to illuminate the viewing location with infrared light such that infrared light is reflected from the viewing location as reflected infrared light; a camera configured to image the viewing location by collecting the reflected infrared light; a sensor configured to generate sensor data that relates to motion of the HMD apparatus; and a computer configured to determine a gaze axis based on one or more images of the viewing location obtained by the camera, control the display to display images based on the sensor data, determine a target object in the displayed images based on the gaze axis, and control the display to move the target object towards the central axis, wherein moving the target object towards the central axis comprises moving the target object at a tracking rate and adjusting the tracking rate based on a difference between the gaze axis and the central axis.
An electronic smoking article comprising: a liquid supply region including a liquid material; an integral heater-wick element in fluidic communication with the liquid supply region, the integral heater-wick element including a heatable portion and at least one wicking portion formed of at least two layers of electrically resistive mesh material, the at least one wicking portion extending into the liquid supply region; characterized in that the electronic smoking article comprises at least one brazed connection structure wrapped around the integral heater-wick element; and at least one electrical lead connected to the at least one brazed connection structure. a liquid supply region including a liquid material; an integral heater-wick element in fluidic communication with the liquid supply region, the integral heater-wick element including a heatable portion and at least one wicking portion formed of at least two layers of electrically resistive mesh material, the at least one wicking portion extending into the liquid supply region; characterized in that the electronic smoking article comprises at least one brazed connection structure wrapped around the integral heater-wick element; and at least one electrical lead connected to the at least one brazed connection structure.
A water atomized stainless steel powder which comprises by weight-%: 10.5 - 30.0 Cr 0.5 - 8.5 Ni 0.01 - 2.0 Mn 0.01 - 3.0 Sn 0.1 - 3.0 Si 0.01 - 0.4 N 0.01 - 1.5 % Mo optionally max 7.0 Cu optionally max 3.0 Nb optionally max 6.0 V balance iron and max 0.5 of unavoidable impurities. 10.5 - 30.0 Cr 0.5 - 8.5 Ni 0.01 - 2.0 Mn 0.01 - 3.0 Sn 0.1 - 3.0 Si 0.01 - 0.4 N 0.01 - 1.5 % Mo optionally max 7.0 Cu optionally max 3.0 Nb optionally max 6.0 V balance iron and max 0.5 of unavoidable impurities.
Method for closing a switch, wherein the switch has a stationary and a moving contact area (4b, 5b), in which method the moving contact area is moved from an open position to a closed position in which the moving contact area bears against the stationary contact area, wherein the two contact areas (4b, 5b) lie in a common contact plane, and in which method the two contact areas (4b, 5b) each run parallel to one another and have an elastic transverse offset in the open position, said contact areas being pressed against one another by said transverse offset in the closed position, characterized in that a moving counterpressure element presses the moving contact area in the direction of the common contact plane in the open position, as a result of which the transverse offset is at least reduced, in that the counterpressure element is moved in the direction of the closed position together with the moving switching contact when the switch is closed, and in that the counterpressure element is stopped during the course of the closing movement, while the moving contact area initially continues to be moved, in a sliding manner on the counterpressure element, until it is in the closed position.
Housing of a coolant compressor having an evaporator shell, whereby the evaporator shell is formed at least by means of a wall made of metal, attached directly an the housing, in leak-proof manner, following a circumference line of the housing, and at least a partial surface (la) of the housing that lies within the wall, and whereby at least one damping element for damping the vibrations transferred from the housing to the wall is attached to the wall, at a distance from the housing, characterized in that the at least one damping element encloses the free upper edge of the wall.
A mop frame comprising a plate forming the bottom frame part onto which bottom side the mop is located for cleaning, in which mop frame at one end of the plate of the mop frame a top part is pivotably attached by a pivot, to which top part a handle arm is attached, wherein the top part is shorter than the plate, advantageously the length of the top part is 55 - 75 % of the length of the plate, characterized in that at the other end of the plate a balancing element, advantageously a pro-trusion, is located for balancing the mop frame.
A sterile preparation, being implantable in or on organic tissues, comprising, under an injectable paste, gel or suspension form, - a natural globin, or modified globin material being insoluble at physiological pH, biocompatible and biodegradable in the body, and - a tissue filling or augmenting polymeric agent, based on cross-linked hyaluronic acid, wherein the ratio of said material, compared to the total of material and polymeric agent, is lower or equal to 50%. - a natural globin, or modified globin material being insoluble at physiological pH, biocompatible and biodegradable in the body, and - a tissue filling or augmenting polymeric agent, based on cross-linked hyaluronic acid,
A moulding or injection moulding tool for moulding or injection moulding parts to be moulded, comprising - a cold runner melt distributor, and - a plurality of mould cavities to which a moulding compound having a temperature of less than 150 °C can be supplied through the cold runner melt distributor and in which the supplied moulding compound can subsequently be solidified, and - an outlet plate which has one nozzle opening for each mould cavity, wherein a runner for supplying the moulding compound is allocated to each mould cavity in the cold runner melt distributor, the runner having an axially movable shut-off needle arranged therein, characterised in that - a common nozzle block is provided for all moulding compound supplies, with the runners for the moulding compound being formed in said common nozzle block, - wherein the common nozzle block is located between a rearward distributor plate for distributing the supplied melt of the moulding compound and the outlet plate in a sandwich-type manner, and - wherein the runners of the common nozzle block each extend to the nozzle openings and each end in the nozzle openings at a forward end. - a cold runner melt distributor, and - a plurality of mould cavities to which a moulding compound having a temperature of less than 150 °C can be supplied through the cold runner melt distributor and in which the supplied moulding compound can subsequently be solidified, and - an outlet plate which has one nozzle opening for each mould cavity, wherein a runner for supplying the moulding compound is allocated to each mould cavity in the cold runner melt distributor, the runner having an axially movable shut-off needle arranged therein, - a common nozzle block is provided for all moulding compound supplies, with the runners for the moulding compound being formed in said common nozzle block, - wherein the common nozzle block is located between a rearward distributor plate for distributing the supplied melt of the moulding compound and the outlet plate in a sandwich-type manner, and - wherein the runners of the common nozzle block each extend to the nozzle openings and each end in the nozzle openings at a forward end.
A method of determining an axial reference position of a cutting blade which moves in a rotating manner and/or in a revolving planetary motion in slicing operation at an apparatus for slicing food products, in particular at a high-performance slicer, wherein the cutting blade is attached to a blade head by means of which the cutting blade can be moved; and wherein the method comprises the steps that - the cutting blade which either does not rotate or which rotates at a specific rotational speed and a cutting edge are traveled toward one another at least substantially axially relative to one another by means of an axial drive; - the blade head is monitored during the axial travel; and - a change in a state of the blade head exceeding a predefinable degree is assessed as a contact of the cutting edge by the cutting blade and as a reaching of the reference position, characterized in that the blade head comprises at least one bearing (21, 23) for the cutting blade, in particular a rotary bearing for a rotation of the cutting blade and/or an axial bearing for an axial movement of the cutting blade, with a movement which is possible due to a bearing clearance or a bearing play of the bearing (21, 23) being recognized in the monitoring. - the cutting blade which either does not rotate or which rotates at a specific rotational speed and a cutting edge are traveled toward one another at least substantially axially relative to one another by means of an axial drive; - the blade head is monitored during the axial travel; and - a change in a state of the blade head exceeding a predefinable degree is assessed as a contact of the cutting edge by the cutting blade and as a reaching of the reference position, characterized in that the blade head comprises at least one bearing (21, 23) for the cutting blade, in particular a rotary bearing for a rotation of the cutting blade and/or an axial bearing for an axial movement of the cutting blade, with a movement which is possible due to a bearing clearance or a bearing play of the bearing (21, 23) being recognized in the monitoring.
A system for treating a tissue site having granulation tissue on a patient, the system comprising: a patterned neo-epithelium dressing for disposing proximate to granulation tissue on the tissue site, wherein the patterned neo-epithelium dressing comprises: an interface member having a first side and a second, patient-facing side for placing proximate the granulation tissue; a fluid passageway that fluidly couples the first and second sides (142, 144) of the interface member for delivery of pressure to the second side; a sealing member for placing over the patterned neo-epithelium dressing and the patient's epidermis; a reduced-pressure interface fluidly coupled to the sealing member; and a reduced-pressure source fluidly coupled to the reduced-pressure interface, wherein the interface member is characterized by a plurality of three-dimensional features formed on the second, patient-facing side of the interface member and comprising a pattern that mimics the pattern of human skin. a patterned neo-epithelium dressing for disposing proximate to granulation tissue on the tissue site, wherein the patterned neo-epithelium dressing comprises: an interface member having a first side and a second, patient-facing side for placing proximate the granulation tissue; a fluid passageway that fluidly couples the first and second sides (142, 144) of the interface member for delivery of pressure to the second side; an interface member having a first side and a second, patient-facing side for placing proximate the granulation tissue; a fluid passageway that fluidly couples the first and second sides (142, 144) of the interface member for delivery of pressure to the second side; a sealing member for placing over the patterned neo-epithelium dressing and the patient's epidermis; a reduced-pressure interface fluidly coupled to the sealing member; and a reduced-pressure source fluidly coupled to the reduced-pressure interface, wherein the interface member is characterized by a plurality of three-dimensional features formed on the second, patient-facing side of the interface member and comprising a pattern that mimics the pattern of human skin.
An Audio/Video, A/V, transmitting device comprising: a Radio Frequency, RF, transmitting module configured to transmit a compressed RF packet to an RF receiving module of an A/V receiving device, the RF transmitting module including a plurality of transmitting antennas; and a processor configured to obtain radio performance between the RF transmitting module and the RF receiving module and, when the obtained radio performance satisfies a preset radio performance, sequentially turn off one or more transmitting antennas among the plurality of transmitting antennas, characterized in that the processor is configured to obtain an angle between the RF transmitting module and the RF receiving module and, when the obtained angle is a predetermined angle, sequentially turn off one or more outermost antennas among the plurality of transmitting antennas. a Radio Frequency, RF, transmitting module configured to transmit a compressed RF packet to an RF receiving module of an A/V receiving device, the RF transmitting module including a plurality of transmitting antennas; and a processor configured to obtain radio performance between the RF transmitting module and the RF receiving module and, when the obtained radio performance satisfies a preset radio performance, sequentially turn off one or more transmitting antennas among the plurality of transmitting antennas, characterized in that the processor is configured to obtain an angle between the RF transmitting module and the RF receiving module and, when the obtained angle is a predetermined angle, sequentially turn off one or more outermost antennas among the plurality of transmitting antennas.
A heater comprising: a ceramic body having a columnar shape or a tubular shape; a heating resistor in the ceramic body; a metal tube in which the ceramic body is disposed; and an insulating member disposed between the ceramic body and the metal tube, the insulting member including a tubular portion in contact with an outer circumferential surface of the ceramic body at an inner circumferential surface thereof and in contact with an inner circumferential surface of the metal tube at an outer circumferential surface thereof, characterized in that the insulating member has larger porosity than the ceramic body. a ceramic body having a columnar shape or a tubular shape; a heating resistor in the ceramic body; a metal tube in which the ceramic body is disposed; and an insulating member disposed between the ceramic body and the metal tube, the insulting member including a tubular portion in contact with an outer circumferential surface of the ceramic body at an inner circumferential surface thereof and in contact with an inner circumferential surface of the metal tube at an outer circumferential surface thereof, characterized in that the insulating member has larger porosity than the ceramic body.
A thermoplastic molding composition comprising A) from 10 to 97% by weight of a thermoplastic polyester B) from 1 to 20% by weight of a phosphinic salt C) from 1 to 20% by weight of a nitrogen-containing flame retardant D) from 0.5 to 30% by weight of a dicarboxylic salt of the formula where R 1 to R 4 are mutually independently halogen or hydrogen, with the proviso that at least one moiety R 1 to R 4 is halogen, x = from 1 to 3 m = from 1 to 9 n = from 2 to 3 M = alkaline earth metal, Ni, Ce, Fe, In, Ga, Al, Pb, Y, Zn, Hg E)from 0 to 50% by weight of other additives, where the total of the percentages by weight of components A) to E) gives 100%. A) from 10 to 97% by weight of a thermoplastic polyester B) from 1 to 20% by weight of a phosphinic salt C) from 1 to 20% by weight of a nitrogen-containing flame retardant D) from 0.5 to 30% by weight of a dicarboxylic salt of the formula where R 1 to R 4 are mutually independently halogen or hydrogen, with the proviso that at least one moiety R 1 to R 4 is halogen, x = from 1 to 3 m = from 1 to 9 n = from 2 to 3 M = alkaline earth metal, Ni, Ce, Fe, In, Ga, Al, Pb, Y, Zn, Hg where R 1 to R 4 are mutually independently halogen or hydrogen, with the proviso that at least one moiety R 1 to R 4 is halogen, x = from 1 to 3 m = from 1 to 9 n = from 2 to 3 M = alkaline earth metal, Ni, Ce, Fe, In, Ga, Al, Pb, Y, Zn, Hg E)from 0 to 50% by weight of other additives,
A method of sensing excessive sleep current draw in a battery-powered device having a microcontroller, the method comprising: measuring a voltage drop across a device coupled in series between the battery and the microcontroller; causing a transistor to conduct when the voltage drop exceeds a predetermined threshold to generate a first trigger signal; integrating the first trigger signal to generate a second trigger signal; and generating an interrupt to the microcontroller in response to the second trigger signal. measuring a voltage drop across a device coupled in series between the battery and the microcontroller; causing a transistor to conduct when the voltage drop exceeds a predetermined threshold to generate a first trigger signal; integrating the first trigger signal to generate a second trigger signal; and generating an interrupt to the microcontroller in response to the second trigger signal.
A grate plate for conveying and cooling very hot materials leaving a furnace, said plate comprising cavities of rectangular shape, the largest dimension being perpendicular to the conveying direction of the material, the cross section of these cavities being triangular with a fin-shaped bottom ending in a turned-up end with a reverse slope, the slope (a) of the cavities being comprised between 10 and 45°, preferably between 20 and 30° to the horizontal, and the reverse slope (β) of the turned-up end having an angle equal to or up to 6° less than the angle (a) of the slope of the cavities.
Method for determining subsurface parameters (p 1,..., P #parameters) from measured reflection data on a plurality of trace positions, the method comprising: - preprocessing the measured reflection data into a plurality of partial or full stacks; - specifying initial subsurface parameters defining an initial subsurface model; - specifying a wavelet or wavelet field for each of the partial or full stacks of the measured reflection data; - calculating synthetic reflection data based on the specified wavelets and the initial subsurface parameters; - optimizing an objective function (F(p 1,..., p #parameters)) for a plurality of subsurface parameters, the objective function comprising the weighted difference between the preprocessed measured reflection data and the synthetic reflection data; - outputting the optimized subsurface parameters. - preprocessing the measured reflection data into a plurality of partial or full stacks; - specifying initial subsurface parameters defining an initial subsurface model; - specifying a wavelet or wavelet field for each of the partial or full stacks of the measured reflection data; - calculating synthetic reflection data based on the specified wavelets and the initial subsurface parameters; - optimizing an objective function (F(p 1,..., p #parameters)) for a plurality of subsurface parameters, the objective function comprising the weighted difference between the preprocessed measured reflection data and the synthetic reflection data; - outputting the optimized subsurface parameters.
A method of manufacturing an image display apparatus wherein an image display member and a light-transmissive cover member having a light shielding layer formed around an outer edge of the cover member are laminated to each other via a light-transmissive cured resin layer formed from a liquid photocurable resin composition (3, 3a, 3b) such that a surface of the light-transmissive cover member on which the light shielding layer is formed is arranged on a side of the image display member, the manufacturing method comprising the following steps to: <Step > coating the surface of the light-transmissive cover member on which the light shielding layer is formed with the liquid photocurable resin composition (3, 3a, 3b) in a thickness thicker than that of the light shielding layer so that a step formed by the light shielding layer and the surface of the light-transmissive cover member on which the light shielding layer is formed is canceled, wherein the liquid photocurable resin composition (3, 3a, 3b) includes a material obtained by previously polymerizing photocurable (meth)acrylate, and the liquid photocurable resin composition (3, 3a, 3b) has a viscosity of 0.01 to 100 Pa·s and is coated in a thickness 2 to 30 times a thickness of the light shielding layer; <Step > irradiating UV rays to the coated photocurable resin composition (3, 3a, 3b) for curing to form a light-transmissive cured resin layer; and <Step > bonding the light-transmissive cover member with the image display member under pressure at 10°C to 80°C using a publicly known pressure bonding apparatus such that the light shielding layer and the light-transmissive cured resin layer are located inside. <Step > coating the surface of the light-transmissive cover member on which the light shielding layer is formed with the liquid photocurable resin composition (3, 3a, 3b) in a thickness thicker than that of the light shielding layer so that a step formed by the light shielding layer and the surface of the light-transmissive cover member on which the light shielding layer is formed is canceled, wherein the liquid photocurable resin composition (3, 3a, 3b) includes a material obtained by previously polymerizing photocurable (meth)acrylate, and the liquid photocurable resin composition (3, 3a, 3b) has a viscosity of 0.01 to 100 Pa·s and is coated in a thickness 2 to 30 times a thickness of the light shielding layer; <Step > irradiating UV rays to the coated photocurable resin composition (3, 3a, 3b) for curing to form a light-transmissive cured resin layer; and <Step > bonding the light-transmissive cover member with the image display member under pressure at 10°C to 80°C using a publicly known pressure bonding apparatus such that the light shielding layer and the light-transmissive cured resin layer are located inside.