mhurhangee/patent-ind-claim-en huggingface dataset:
A privacy user interactive apparatus, comprising: a display panel configured to display a stereoscopic image of a user input interface in a three-dimensional display space; a three-dimensional positional sensor configured to detect a three-dimensional position of a user input object; and a processor coupled to the display panel and the three-dimensional positional sensor , configured to control the display panel to display the stereoscopic image of the user input interface in the three-dimensional display space, configured to receive an input control signal from the three-dimensional positional sensor , and configured to execute an operation in response to the input control signal; wherein the display panel is,configured to display a three-dimensional image of the user input interface in the three-dimensional display space and a two-dimensional image of the user input interface outside the three-dimensional display space; and the processor is configured to control the display panel to display a plurality of activatable virtual objects comprising at least a first group of one or more activatable virtual objects substantially at a first depth level and a second group of one or more activatable virtual objects substantially at a second depth level; the first depth level and the second depth level being two different depth levels in the three-dimensional image of the user input interface, wherein the processor is configured to control the display panel to display at least one of the plurality of activatable virtual objects configured with a background context. a display panel configured to display a stereoscopic image of a user input interface in a three-dimensional display space; a three-dimensional positional sensor configured to detect a three-dimensional position of a user input object; and a processor coupled to the display panel and the three-dimensional positional sensor , configured to control the display panel to display the stereoscopic image of the user input interface in the three-dimensional display space, configured to receive an input control signal from the three-dimensional positional sensor , and configured to execute an operation in response to the input control signal; wherein the display panel is,configured to display a three-dimensional image of the user input interface in the three-dimensional display space and a two-dimensional image of the user input interface outside the three-dimensional display space; and the processor is configured to control the display panel to display a plurality of activatable virtual objects comprising at least a first group of one or more activatable virtual objects substantially at a first depth level and a second group of one or more activatable virtual objects substantially at a second depth level; the first depth level and the second depth level being two different depth levels in the three-dimensional image of the user input interface,
A process for preparing a polyolefin polymer comprising the steps of a) forming a particulate polyolefin polymer by polymerizing one or more olefins in the presence of a polymerization catalyst system in a polymerization reactor; b) discharging the formed polyolefin particles from the polymerization reactor; c) degassing the polyolefin particles by a process comprising at least a final step of contacting the polyolefin particles with a nitrogen stream in a degassing vessel; and d) transferring the polyolefin particles from the vessel, in which the contacting of the polyolefin particles with the nitrogen stream is carried out, to a melt mixing device, in which the polyolefin particles are melted, mixed and thereafter pelletized, without passing the particles through a buffering device, wherein the degassing vessel is only partly filled with polyolefin particles and the empty volume within the degassing vessel is sufficient to take up additional polyolefin particles for at least 3 hours if the transfer of polyolefin particles of step d) from the degassing vessel to the melt mixing device is discontinued and the discharge of polyolefin particles from the polymerization reactor according to step b) is continued with unchanged rate. a) forming a particulate polyolefin polymer by polymerizing one or more olefins in the presence of a polymerization catalyst system in a polymerization reactor; b) discharging the formed polyolefin particles from the polymerization reactor; c) degassing the polyolefin particles by a process comprising at least a final step of contacting the polyolefin particles with a nitrogen stream in a degassing vessel; and d) transferring the polyolefin particles from the vessel, in which the contacting of the polyolefin particles with the nitrogen stream is carried out, to a melt mixing device, in which the polyolefin particles are melted, mixed and thereafter pelletized, without passing the particles through a buffering device,
Computer assisted and robot guided laser osteotome comprising a robotic arm , a solid state photoablation laser source mounted in the robotic arm , a dedicated patient-photoablation laser autotracking system , and a computer console to control the photoablation laser source , a closed-loop control system to stop the laser source sending laser pulses at a hard-soft tissue interface when a bone is fully traversed, characterized in that the closed-loop control system has an optical sensor comprising color evaluating means.
A pad-equipped lift device comprising a body and a pad , and sucking an article by Bernoulli Effect, wherein the pad includes a connecting portion attached to an end of the body, and a skirt portion that is flexible and expands toward a distal end of the skirt portion, and air flowing along an end surface of the body flows on an inner side of the skirt portion of the pad, whereby the distal end of the skirt portion is deformed to shrink inward. wherein the pad includes a connecting portion attached to an end of the body, and a skirt portion that is flexible and expands toward a distal end of the skirt portion, and a connecting portion attached to an end of the body, and a skirt portion that is flexible and expands toward a distal end of the skirt portion, and air flowing along an end surface of the body flows on an inner side of the skirt portion of the pad, whereby the distal end of the skirt portion is deformed to shrink inward.
Workstation of a textile machine that produces cross-wound packages, comprising a mechanical thread storage device , which is arranged in the region of the thread traversing triangle and by means of which the changes in the thread winding speed that occur during the winding of a cross-wound package because of the thread traversing are compensated, the mechanical thread storage device having a stationary input-side thread deflection roller , a movably mounted thread deflection roller and a stationary output-side thread deflection roller , which is the starting point of the thread traversing triangle , the axes of rotation of the thread deflection rollers being arranged parallel to the traversing plane of the thread, and the stationary input-side thread deflection roller and the movably mounted thread deflection roller having a V-shaped thread running surface, characterised in that the stationary output-side thread deflection roller has a thread running surface in which a U-shaped thread guide groove is formed.
A method for anti-ice performance analysis to determine a heating air cycle profile, comprising: cycling a flow of heating air through an aircraft structure ; measuring a temperature of the aircraft structure to generate an oscillatory signal ; measuring a minimum temperature value of the aircraft structure based on the oscillatory signal ; and calculating, by a controller , anti-ice conditions of the aircraft structure based on the minimum temperature value , and characterized by calculating, by the controller , a runback ice thickness on the aircraft structure based on the minimum temperature value; determining, by the controller , whether the calculated runback ice thickness is greater than or equal to a threshold value; wherein the minimum temperature value is the temperature measured at a location corresponding to a coldest location of an aircraft structure , wherein the location corresponds to an exhaust port of heating air within the aircraft structure; and characterized in that calculating the runback ice thickness includes using the minimum temperature value as a constant value signal for simplifying the calculation as a steady state calculation. cycling a flow of heating air through an aircraft structure ; measuring a temperature of the aircraft structure to generate an oscillatory signal ; measuring a minimum temperature value of the aircraft structure based on the oscillatory signal ; and calculating, by a controller , anti-ice conditions of the aircraft structure based on the minimum temperature value , and characterized by calculating, by the controller , a runback ice thickness on the aircraft structure based on the minimum temperature value; determining, by the controller , whether the calculated runback ice thickness is greater than or equal to a threshold value; wherein the minimum temperature value is the temperature measured at a location corresponding to a coldest location of an aircraft structure , wherein the location corresponds to an exhaust port of heating air within the aircraft structure; and characterized in that calculating the runback ice thickness includes using the minimum temperature value as a constant value signal for simplifying the calculation as a steady state calculation.
A method for performing repetitive transmission of physical uplink shared channel, PUSCH by a terminal in a communication system operating in a time division duplex, TDD, based cell, the method comprising: detecting a physical downlink control channel, PDCCH, on downlink subframes; and repeatedly transmitting a PUSCH corresponding to the PDCCH to a base station on uplink subframes, wherein transmission timing information is configured based on an uplink-downlink configuration of the TDD based cell, wherein at least one downlink subframe according to the uplink-downlink configuration has a corresponding subsequent uplink subframe according to the transmission timing information, and wherein, when the last subframe of the downlink subframes does not have a corresponding uplink subframe according to the transmission timing information, the transmission timing of the first PUSCH transmission of the repeatedly transmitted PUSCH is determined to be an uplink subframe which corresponds to the earliest coming downlink subframe having a corresponding uplink subframe according to the transmission timing information after the last subframe of the downlink subframes. detecting a physical downlink control channel, PDCCH, on downlink subframes; and repeatedly transmitting a PUSCH corresponding to the PDCCH to a base station on uplink subframes, wherein transmission timing information is configured based on an uplink-downlink configuration of the TDD based cell, wherein at least one downlink subframe according to the uplink-downlink configuration has a corresponding subsequent uplink subframe according to the transmission timing information, and wherein, when the last subframe of the downlink subframes does not have a corresponding uplink subframe according to the transmission timing information, the transmission timing of the first PUSCH transmission of the repeatedly transmitted PUSCH is determined to be an uplink subframe which corresponds to the earliest coming downlink subframe having a corresponding uplink subframe according to the transmission timing information after the last subframe of the downlink subframes.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein: (a) each R 1 and R 2 is independently H, alkyl, alkenyl, alkynyl, arylalkyl, cycloalkylalkyl, heteroarylalkyl, or heterocyclylalkyl, any of which is substituted or unsubstituted; (b) each R 3 is independently alkylene, alkenylene, or alkynylene, any of which is substituted or unsubstituted; (c) each x is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; (d) each w and y is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, or 20; (e) z is1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and (f) each Xaa is independently an amino acid, wherein the compound exhibits an intracellular antimicrobial effect against at least one microbe, and wherein the compound comprises the amino acid sequence set forth in SEQ ID NO: 7, except that said sequence comprises at least 2 modified amino acids that together form an internal cross-link, optionally wherein the sequence further comprises 1, 2, 3, 4, or 5 additional amino acid substitutions. (a) each R 1 and R 2 is independently H, alkyl, alkenyl, alkynyl, arylalkyl, cycloalkylalkyl, heteroarylalkyl, or heterocyclylalkyl, any of which is substituted or unsubstituted; (b) each R 3 is independently alkylene, alkenylene, or alkynylene, any of which is substituted or unsubstituted; (c) each x is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; (d) each w and y is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, or 20; (e) z is1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and (f) each Xaa is independently an amino acid,
Device for spreading granular material , in particular for spreading sand into the gap between a rail and a wheel of a rail vehicle , comprising a housing , at least one inlet for the granular material , and at least one outlet for the granular material , an axially movable metering piston having at least one bore and a compressed air connection opening into a pressure chamber for actuating the metering piston by means of compressed air for metering the granular material , a conveying air chamber which is separate from the pressure chamber being provided with a compressed air connection , and the at least one bore in the metering piston connecting the conveying air chamber to the at least one outlet for the granular material , such that the granular material can be conveyed to the at least one outlet by means of compressed air independently of the metering process, characterised in that a plurality of bores are arranged the metering piston .
A method for forming a flexographic plate comprising: providing an image pattern including image features to be formed on the flexographic plate, the image pattern including an array of image pixels, wherein the image pixels include printing pixels corresponding to portions of the image pattern where ink is to be printed on a substrate by the flexographic plate; identifying edge regions of the image features; identifying interior regions of the image features; wherein the edge regions and the interior regions are separated by gap regions , wherein a width of the gap region is in the range of 5-30 μm; providing a fine texture pattern ; providing a coarse texture pattern ; applying the fine texture pattern to the edge regions of the image features and applying the coarse texture pattern to the interior regions of the image features to form a textured image pattern , wherein no texture pattern is applied to the gap regions thereby leaving gaps between the edge regions and the interior regions of the image features; and forming a flexographic plate using the textured image pattern . providing an image pattern including image features to be formed on the flexographic plate, the image pattern including an array of image pixels, wherein the image pixels include printing pixels corresponding to portions of the image pattern where ink is to be printed on a substrate by the flexographic plate; identifying edge regions of the image features; identifying interior regions of the image features; wherein the edge regions and the interior regions are separated by gap regions , wherein a width of the gap region is in the range of 5-30 μm; providing a fine texture pattern ; providing a coarse texture pattern ; applying the fine texture pattern to the edge regions of the image features and applying the coarse texture pattern to the interior regions of the image features to form a textured image pattern , wherein no texture pattern is applied to the gap regions thereby leaving gaps between the edge regions and the interior regions of the image features; and forming a flexographic plate using the textured image pattern .
A method for producing a hot forged material in air, by placing on a lower die a material for hot forging, wherein part or all of a surface of said material for hot forging is coated with a first glass-based lubricant (A), and pressing the material for hot forging with the lower die and an upper die, to form a hot forged material, wherein one or both of the lower die and the upper die are a die made of a Ni-based superalloy having a composition consisting of, in mass%, W: 7.0 to 12.0%, Mo: 4.0 to 11.0%, Al: 5.0 to 7.5%, optionally Cr: 7.5% or less, optionally Ta: 7.0% or less, and optionally one or more elements selected from the group of Hf, Zr, La and Y, and Mg: 0.5% or less, and the balance of Ni with inevitable impurities, a surface of the die made of the Ni-based superalloy in contact with the material for hot forging is coated with a second glass-based lubricant (B) comprising SiO 2 as a main component; a total content of alkali metal oxides in the second glass-based lubricant (B) is 0 to 3.0% in mass%, and a lubricating film formed by the second glass-based lubricant (B) has a thickness of 100μm or more. wherein one or both of the lower die and the upper die are a die made of a Ni-based superalloy having a composition consisting of, in mass%, W: 7.0 to 12.0%, Mo: 4.0 to 11.0%, Al: 5.0 to 7.5%, optionally Cr: 7.5% or less, optionally Ta: 7.0% or less, and optionally one or more elements selected from the group of Hf, Zr, La and Y, and Mg: 0.5% or less, and the balance of Ni with inevitable impurities, a surface of the die made of the Ni-based superalloy in contact with the material for hot forging is coated with a second glass-based lubricant (B) comprising SiO 2 as a main component; a total content of alkali metal oxides in the second glass-based lubricant (B) is 0 to 3.0% in mass%, and a lubricating film formed by the second glass-based lubricant (B) has a thickness of 100μm or more.
A computer-based method for creating a synthesized noise image for a digital image represented by a decoded clean sequence , wherein a combination of the synthesized noise image with the decoded clean sequence represents an image to be rendered for display or for color conversion prior to display, the method comprising: providing a plurality of noise block patterns; initializing a noise image that corresponds to the decoded clean sequence ; generating a probability image comprising randomly generated probability values at each pixel of the probability image ; comparing each probability value in the probability image with a threshold criterion; if the probability value satisfies the threshold criterion, selecting a noise block pattern from the plurality of noise block patterns, the noise block pattern having an anchor point; and if the probability value satisfies the threshold criterion, creating the synthesized noise image by placing the noise block pattern in the noise image such that the anchor point corresponds to a pixel in the probability image that meets the threshold criterion. providing a plurality of noise block patterns; initializing a noise image that corresponds to the decoded clean sequence ; generating a probability image comprising randomly generated probability values at each pixel of the probability image ; comparing each probability value in the probability image with a threshold criterion; if the probability value satisfies the threshold criterion, selecting a noise block pattern from the plurality of noise block patterns, the noise block pattern having an anchor point; and if the probability value satisfies the threshold criterion, creating the synthesized noise image by placing the noise block pattern in the noise image such that the anchor point corresponds to a pixel in the probability image that meets the threshold criterion.
A volume adjustment device comprising: a microphone; a speaker; and a signal processing unit, wherein the signal processing unit is configured to: i) output a measurement sound from the speaker, ii) measure a first impulse response with the microphone, and iii) adjust a volume of the measurement sound output from the speaker based on a direct sound component of the first impulse response and an indirect sound component of the first impulse response, wherein the signal processing unit is also configured to estimate a second impulse response at a target position based on the first impulse response, and adjust the volume based on the second impulse response, wherein the signal processing unit is also configured to estimate the second impulse response by adjusting the direct sound component such that the energy ratio of the direct sound component of the first impulse response to the indirect sound component of the first impulse response is a predetermined energy ratio, and wherein the signal processing unit is also configured to: i) estimate a sound pressure at the target position of the measurement sound based on a first impulse response energy of the first impulse response and a second impulse response energy of the second impulse response, and ii) adjust the volume such that the sound pressure is at a predetermined level. a microphone; a speaker; and a signal processing unit, wherein the signal processing unit is configured to: i) output a measurement sound from the speaker, ii) measure a first impulse response with the microphone, and iii) adjust a volume of the measurement sound output from the speaker based on a direct sound component of the first impulse response and an indirect sound component of the first impulse response, wherein the signal processing unit is also configured to estimate a second impulse response at a target position based on the first impulse response, and adjust the volume based on the second impulse response, wherein the signal processing unit is also configured to estimate the second impulse response by adjusting the direct sound component such that the energy ratio of the direct sound component of the first impulse response to the indirect sound component of the first impulse response is a predetermined energy ratio, and wherein the signal processing unit is also configured to: i) estimate a sound pressure at the target position of the measurement sound based on a first impulse response energy of the first impulse response and a second impulse response energy of the second impulse response, and ii) adjust the volume such that the sound pressure is at a predetermined level.
A coiled wave spring used by a diaphragm damper device and configured to be arranged in a fuel chamber defined by a housing and a cover , wherein the coiled wave spring is configured to be arranged between a diaphragm damper of the diaphragm damper device and the cover , the coiled wave spring is configured to fix the diaphragm damper to the housing with its elastic force, and the coiled wave spring includes a coil portion, a winding initiation portion, and a winding termination portion, wherein the winding initiation portion and the winding termination portion form flat seat windings , the seat windings each have a larger outer diameter than the coil portion, and one of the seat windings is configured to be fixed to the diaphragm damper ; the coiled wave spring being characterized in that one of the seat windings is configured to be fixed to the diaphragm damper , and the other one of the seat windings is fixed to a coupling member attachable to an inner side of the cover .