mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a screen of a display, the method comprising: binding each of a plurality of sub-screens (110, 120) displayed on a screen of a display apparatus to at least one of input devices (130, 140) communicable with the display apparatus; in response to receiving a control instruction with respect to the display apparatus, determining a target sub-screen that is bound to an input device that has transmitted the control instruction, from among the plurality of sub-screens (110, 120); and performing the control instruction received from one of the input devices on the determined target sub-screen, independently of other sub-screens (110, 120); characterised by: when one or more of the plurality of sub-screens (110, 120) are bound to the input device, performing, according to a user input from the input device, conversion between a multi-screen mode displaying all of the sub-screens (110, 120) bound to the input device and a tab mode displaying content of only one of corresponding sub-screens (110, 120) on a single screen having a size corresponding to a sum of the sub-screens (110, 120) bound to the input device. binding each of a plurality of sub-screens (110, 120) displayed on a screen of a display apparatus to at least one of input devices (130, 140) communicable with the display apparatus; in response to receiving a control instruction with respect to the display apparatus, determining a target sub-screen that is bound to an input device that has transmitted the control instruction, from among the plurality of sub-screens (110, 120); and performing the control instruction received from one of the input devices on the determined target sub-screen, independently of other sub-screens (110, 120); characterised by: when one or more of the plurality of sub-screens (110, 120) are bound to the input device, performing, according to a user input from the input device, conversion between a multi-screen mode displaying all of the sub-screens (110, 120) bound to the input device and a tab mode displaying content of only one of corresponding sub-screens (110, 120) on a single screen having a size corresponding to a sum of the sub-screens (110, 120) bound to the input device.
An electronic device for generating user detectable multi-functional feedback with a single component in response to a stimulus signal, said electronic device comprising at least a housing, a display, and electronic circuitry located in said housing, characterised in that said electronic device further comprises: a lens covering the display, the lens having a transparent area placed over the display, force sensors attached to the lens for detecting a touch against the lens, the force sensors producing a stimulus signal in response to the touch, at least one resonating vibrating element attached to an area of said lens extending outside of the display, the resonating vibrating element having the ability to produce at least two feedback signals selected from a group consisting of a haptical feedback signal, a vibratory alert signal, an audio signal, and a buzzer signal; and an electrical drive circuit electrically coupled to said vibrating element to electrically drive said vibrating element with a drive signal, said drive signal being constituted based on the stimulus signal. a lens covering the display, the lens having a transparent area placed over the display, force sensors attached to the lens for detecting a touch against the lens, the force sensors producing a stimulus signal in response to the touch, at least one resonating vibrating element attached to an area of said lens extending outside of the display, the resonating vibrating element having the ability to produce at least two feedback signals selected from a group consisting of a haptical feedback signal, a vibratory alert signal, an audio signal, and a buzzer signal; and an electrical drive circuit electrically coupled to said vibrating element to electrically drive said vibrating element with a drive signal, said drive signal being constituted based on the stimulus signal.
An amphiphilic peptide comprising at least 2 pairs of alternating hydrophobic/hydrophilic amino acid residues or a salt thereof, wherein the peptide comprises: i. 2-20 pairs of hydrophobic-hydrophilic alternating amino acid residues wherein the hydrophilic amino acid is selected from the group consisting of a negatively charged amino acid, a hydroxyl-containing amino acid, and a phosphorylated-hydroxyl-containing amino acid; ii. no more than 10% positively charged amino acid residues; and iii. at least one terminal Pro residue; and wherein the amphiphilic peptide comprises the amino acid sequence X-(Phe-Asp) n -B; wherein n designates an integer of 2-20, X designates Pro, Pro-hydrophilic or represents the peptide's amino terminus, and B is Pro or represents the peptide's carboxy terminus. i. 2-20 pairs of hydrophobic-hydrophilic alternating amino acid residues wherein the hydrophilic amino acid is selected from the group consisting of a negatively charged amino acid, a hydroxyl-containing amino acid, and a phosphorylated-hydroxyl-containing amino acid; ii. no more than 10% positively charged amino acid residues; and iii. at least one terminal Pro residue; and
An anti-condensation control apparatus comprising: a sensor circuit comprising a humidity sensor and configured to provide a sensor signal indicative of a relative humidity on or near a control surface; and a control circuit comprising a phase control circuit configured to: receive the sensor signal and a high-voltage AC power input, and modulate a phase of the high-voltage AC power input at least partly in response to the sensor signal indicative of the RH on or near the control surface and without use of a temperature sensor, the phase control circuit configured to modulate the phase of the high-voltage AC power input in such a manner that a phase-modulated AC power output provided to a heater (150, 151) is: a) substantially constant at a minimum power level (P min) in a low RH region ranging from 0 % RH to a first RH (RH 1), b) linearly varying from P min to a maximum power level (P max) in an intermediate RH region ranging from RH 1 to a second RH (RH 2), and c) substantially constant at P max in a high RH region ranging from RH 2 to 100 % RH, wherein the phase control circuit comprises an analog logic circuit. a sensor circuit comprising a humidity sensor and configured to provide a sensor signal indicative of a relative humidity on or near a control surface; and a control circuit comprising a phase control circuit configured to: receive the sensor signal and a high-voltage AC power input, and modulate a phase of the high-voltage AC power input at least partly in response to the sensor signal indicative of the RH on or near the control surface and without use of a temperature sensor, the phase control circuit configured to modulate the phase of the high-voltage AC power input in such a manner that a phase-modulated AC power output provided to a heater (150, 151) is: a) substantially constant at a minimum power level (P min) in a low RH region ranging from 0 % RH to a first RH (RH 1), b) linearly varying from P min to a maximum power level (P max) in an intermediate RH region ranging from RH 1 to a second RH (RH 2), and c) substantially constant at P max in a high RH region ranging from RH 2 to 100 % RH, a) substantially constant at a minimum power level (P min) in a low RH region ranging from 0 % RH to a first RH (RH 1), b) linearly varying from P min to a maximum power level (P max) in an intermediate RH region ranging from RH 1 to a second RH (RH 2), and c) substantially constant at P max in a high RH region ranging from RH 2 to 100 % RH, wherein the phase control circuit comprises an analog logic circuit.
Hall sensor assembly, comprising a plurality of Hall sensors, each Hall sensor comprising a Hall sensor active area being sensitive to magnetic fields and being disposed on a non-conducting, non-magnetic support part (40, 42, 44), wherein the support parts (40, 42, 44) are formed to support the formation of three groups of Hall sensor active areas, each group comprising at least two Hall sensor active areas, each group covering the measurement of the magnetic field for one of the three Cartesian directions wherein the three groups of Hall sensor active areas are disposed adjacent to each other in order to share a common Hall sensor active volume that is smaller or equal to 200μm x 200μm x 200μm, wherein the support parts (40, 42, 44) are formed as cuboidic support parts and each Hall sensor is comprised on an individual substrate (34, 36, 38); each substrate (34, 36, 38) being mounted to one surface of the respective cuboidic support part (40, 42, 44) wherein each substrate has one specific corner, each of these specific corners bearing the Hall sensor active area of the respective Hall sensor, and wherein the support parts (40, 42, 44) and the substrates are assembled such that the said specific corners of the substrates are located within the common Hall sensor active volume.
An apparatus comprising a navigation analyzer configured to determine a turn center location (616, 640) based on a radius of curvature for a curved navigation path for a vehicle (102, 602, 626) to follow and to determine a distance between the turn center location (616, 640) and at least one of a front axle (608, 630) or a rear axle (606, 632) of the vehicle (102, 602, 626); a feedforward wheel angle determiner configured to determine a wheel steering angle based on the distance between the turn center location (610, 646) and the at least one of the front axle (608, 630) or the rear axle (606, 632) and a distance between the front axle (608, 630) and the rear axle (606, 632); a heading error offset determiner configured to determine a heading error offset adjustment based on a distance; and a steering controller configured to cause the vehicle to follow the curved navigation path based on the wheel steering angle and the heading error offset adjustment; characterized in that the navigation analyzer is configured to determine a distance between a location sensor (105, 604, 628) and the turn center location (616, 640); and that the heading error offset determiner is configured to determine the heading error offset adjustment based on the distance between the location sensor (105, 604) and the turn center location (616, 640) and the distance between the location sensor (105, 604, 628) and at least one of the front axle (608, 630) or the rear axle (606, 632). a navigation analyzer configured to determine a turn center location (616, 640) based on a radius of curvature for a curved navigation path for a vehicle (102, 602, 626) to follow and to determine a distance between the turn center location (616, 640) and at least one of a front axle (608, 630) or a rear axle (606, 632) of the vehicle (102, 602, 626); a feedforward wheel angle determiner configured to determine a wheel steering angle based on the distance between the turn center location (610, 646) and the at least one of the front axle (608, 630) or the rear axle (606, 632) and a distance between the front axle (608, 630) and the rear axle (606, 632); a heading error offset determiner configured to determine a heading error offset adjustment based on a distance; and a steering controller configured to cause the vehicle to follow the curved navigation path based on the wheel steering angle and the heading error offset adjustment; characterized in that the navigation analyzer is configured to determine a distance between a location sensor (105, 604, 628) and the turn center location (616, 640); and that the heading error offset determiner is configured to determine the heading error offset adjustment based on the distance between the location sensor (105, 604) and the turn center location (616, 640) and the distance between the location sensor (105, 604, 628) and at least one of the front axle (608, 630) or the rear axle (606, 632).
A surface combustion burner comprising: a nozzle configured to discharge fuel gas and air for combustion; and a laminate, provided on a tip of the nozzle, in which a plurality of mesh plates is laminated, wherein the laminate includes a portion having an offset arrangement between at least any adjacent ones of the mesh plates, flame is formed on a surface of the laminate as a combustion part by a mixed gas of the fuel gas and the air for combustion that is supplied to the outside through the laminate, the laminate has an opening ratio of 8 % or less, the opening ratio of the laminate being defined as a ratio of opening parts area to a whole laminate area when the laminate is projected in a laminating direction, each mesh plate of the plurality of mesh plates has openings with an average span of 1 mm to 5 mm, and the laminate has four or more of the mesh plates. a nozzle configured to discharge fuel gas and air for combustion; and a laminate, provided on a tip of the nozzle, in which a plurality of mesh plates is laminated, wherein the laminate includes a portion having an offset arrangement between at least any adjacent ones of the mesh plates, flame is formed on a surface of the laminate as a combustion part by a mixed gas of the fuel gas and the air for combustion that is supplied to the outside through the laminate, the laminate has an opening ratio of 8 % or less, the opening ratio of the laminate being defined as a ratio of opening parts area to a whole laminate area when the laminate is projected in a laminating direction, each mesh plate of the plurality of mesh plates has openings with an average span of 1 mm to 5 mm, and the laminate has four or more of the mesh plates.
An electrosurgical instrument, comprising: a first jaw member and a second opposing jaw member at a distal end of the electrosurgical instrument, wherein each jaw member (210, 220) includes an outer housing (216, 226), and an inner tissue engaging surface; at least one of the jaw members (210, 220) movable from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; and an electrode (212, 222) disposed on the inner tissue engaging surface of the first jaw member having a first contact region (212a, 222a) disposed adjacent to a first edge of the inner tissue engaging surface and a second contact region (212b, 222b) disposed adjacent to a second edge of the inner tissue engaging surface, characterized in that the width and optionally also surface area of the first contact region (212a, 222a) is greater than that of the second contact region (212b, 222b); and further characterized in that the ratio of the width of the first contact region (212a, 222a) to the width of the second contact region (212b, 222b) is greater than 1.2:1. a first jaw member and a second opposing jaw member at a distal end of the electrosurgical instrument, wherein each jaw member (210, 220) includes an outer housing (216, 226), and an inner tissue engaging surface; at least one of the jaw members (210, 220) movable from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; and an electrode (212, 222) disposed on the inner tissue engaging surface of the first jaw member having a first contact region (212a, 222a) disposed adjacent to a first edge of the inner tissue engaging surface and a second contact region (212b, 222b) disposed adjacent to a second edge of the inner tissue engaging surface, characterized in that the width and optionally also surface area of the first contact region (212a, 222a) is greater than that of the second contact region (212b, 222b); and further characterized in that the ratio of the width of the first contact region (212a, 222a) to the width of the second contact region (212b, 222b) is greater than 1.2:1.
Minute three-dimensional structures obtainable by microstereolithography, wherein said structures are mainly formed from photo-curing materials selected from the group of acrylate, epoxy, acrylate-epoxy complex, and oxetane; said structure is detoxified and is cytocompatible at least to the extent that cells isolated and cultured outside living organisms can be cultured on the surface of and in contact with said structure; and said detoxification is achieved by heating said structure to its glass transition temperature in the range of temperatures from 175 °C to 200 °C for a heating time of 6 to 24 hours after UV-curing.
A method for generating fault indications for an additive manufacturing machine based on a comparison of the outputs of multiple process models to measured sensor data, the method comprising: receiving, via a communication interface, sensor data (135, 140) from a plurality of sensors from the additive manufacturing machine during manufacture of at least one part; selecting a plurality of models from a model database, each model generating expected sensor values for a defined condition; computing difference values between a selected set of the sensor data and an output of each of the plurality of models; computing a probability density function defining, for each of the models, a likelihood that a given difference value corresponds to each respective model; applying a probabilistic rule to determine, for each of the models, a probability that the corresponding model output matches the received sensor data; and outputting an indicator of a defined condition corresponding to a model having the highest match probability. receiving, via a communication interface, sensor data (135, 140) from a plurality of sensors from the additive manufacturing machine during manufacture of at least one part; selecting a plurality of models from a model database, each model generating expected sensor values for a defined condition; computing difference values between a selected set of the sensor data and an output of each of the plurality of models; computing a probability density function defining, for each of the models, a likelihood that a given difference value corresponds to each respective model; applying a probabilistic rule to determine, for each of the models, a probability that the corresponding model output matches the received sensor data; and outputting an indicator of a defined condition corresponding to a model having the highest match probability.
A polysaccharide preparation having an anti-Xa activity and an anti-IIa activity each less than 50 IU/mg, wherein the preparation has no glycol split uronic acid residues and wherein the preparation consists of polysaccharides of Formula I: -U 2S -H x,y,z - -[U w -H x,y,z] n wherein n is an integer such that n = 1-20; w = -2OS or -2OH; x = -NS or -NAc; y = -3OS or -3OH; z = -6OS or -6OH; wherein U indicates a uronic acid residue and H indicates a hexosamine residue; and wherein w, x, y, and z are the same or different on each U or H residue, and wherein the preparation is obtainable by a method comprising digesting an unfractionated heparin with Bacteroides thetaiotaomicron Heparinase I.
A sonotrode (218, 318, 418) of an ultrasonic welding device with a sonotrode body (224, 324) with sonotrode head (220, 320) with at least one working surface (230, 232, 330, 332) extending in the longitudinal direction of the sonotrode head for welding or welding together and/or deforming and/or cutting at least one item of metallic welding material, wherein the sonotrode head (220, 320) has mutually differing cross-sections along the working surface (230, 232, 330, 332), characterised in that the cross-section of the sonotrode head (220, 320) in the end region (244, 344) of the working surface (230, 232, 330, 332) extending at the end face is greater than in the middle region of the working surface.
A dot code (20; 20A; 40; 70), comprising a plurality of first header blocks, a plurality of second header blocks and a plurality of data blocks (260B; 460B, 460B') arranged in an indicator matrix (280; 780), each of the first header blocks and the second header blocks having a header graphical micro-unit (A, A'), and each of the data blocks (260B; 460B, 460B') having a data graphical micro-unit, the header graphical micro-units (A, A') presenting header information, the data graphical micro-units presenting indicator data, and the header graphical micro-units (A, A') and the data graphical micro-units are formed as a dot pattern, wherein the second header blocks and the data blocks (260B; 460B, 460B') are arranged in an array area, the first header blocks are disposed at one side of the array area and are alongside to the array area, so as to form the indicator matrix (280; 780) together with the array area, centers of the first header blocks are arranged in a first straight line, the centers of the second header blocks are arranged in a second straight line, and an included angle between the first straight line and the second straight line is less than 90 degrees and more than 0 degree, wherein one of the header graphical micro-units (A') in the second header blocks is selectively disposed at or away from the center of the corresponding second header block, and the rest of the header graphical micro-units are located at the centers of the corresponding first header blocks and the corresponding second header blocks, wherein the data graphical micro-units arranged in the array area comprise two groups of data graphical micro-units and the two groups of data graphical micro-units are spaced apart each other by the second straight line.
A method of making a metrological scale for scale reading apparatus comprising: a. making a scale body comprising a layer of material and a fibre reinforced composite substrate; and then b. making graduations (40, 42) in the layer of material of the scale body to form a scale, characterised in that the composite substrate is made by pultrusion using a chosen fibre, ratio of fibres to resin and/or type of resin in the composite substrate to achieve a required coefficient of thermal expansion for the composite substrate. a. making a scale body comprising a layer of material and a fibre reinforced composite substrate; and then b. making graduations (40, 42) in the layer of material of the scale body to form a scale, characterised in that the composite substrate is made by pultrusion using a chosen fibre, ratio of fibres to resin and/or type of resin in the composite substrate to achieve a required coefficient of thermal expansion for the composite substrate.