mhurhangee/patent-ind-claim-en huggingface dataset:
A method for intelligent data compression in a portable computing device, PCD, the method comprising: determining a fixation point within an image frame by a fixation point sensor , wherein the fixation point sensor is configured to determine an area of user focus within a given image frame; sectoring the image frame into two or more sectors, wherein the two or more sectors comprise a fixation sector (L1) that includes the fixation point and one or more foveated sectors (L2-L6), each foveated sector does not include the fixation point, and each sector comprises a plurality of tiles; compressing the image frame such that the fixation sector is compressed according to a compression algorithm having a low compression factor and the one or more foveated sectors are compressed according to a compression algorithm having a high compression factor, wherein each respective tile within a particular foveated sector is subject to a different compression factor that is based on a distance between the fixation sector and the respective tile, each compression factor of a respective tile within a foveated sector having a magnitude that is assigned corresponding to the distance between the fixation sector and a respective tile; and storing the compressed image frame. determining a fixation point within an image frame by a fixation point sensor , wherein the fixation point sensor is configured to determine an area of user focus within a given image frame; sectoring the image frame into two or more sectors, wherein the two or more sectors comprise a fixation sector (L1) that includes the fixation point and one or more foveated sectors (L2-L6), each foveated sector does not include the fixation point, and each sector comprises a plurality of tiles; compressing the image frame such that the fixation sector is compressed according to a compression algorithm having a low compression factor and the one or more foveated sectors are compressed according to a compression algorithm having a high compression factor, wherein each respective tile within a particular foveated sector is subject to a different compression factor that is based on a distance between the fixation sector and the respective tile, each compression factor of a respective tile within a foveated sector having a magnitude that is assigned corresponding to the distance between the fixation sector and a respective tile; and storing the compressed image frame.
A method for detecting a condition in a device containing a gear train, said gear train having a first gear rotationally coupled to a second gear , said method characterised by : (a) receiving at an evaluation system gear train rotation information relating to rotation of said gear train; (b) receiving at said evaluation system vibration information relating to vibration of said device , said vibration of said device comprising vibration coupled from said gear train; (c) determining at said evaluation system a first condition indicator for said first gear based on processing said vibration information relative to a first rotation parameter of said first gear , wherein said first rotation parameter is determined from said gear train rotation information ; (d) determining at said evaluation system a second condition indicator for said second gear based on processing said vibration information relative to a second rotation parameter of said second gear, wherein said second rotation parameter is determined from said gear train rotation information , wherein the first rotation parameter and the second rotation parameter are further determined, for each of the first gear and the second gear, based on a predetermined gear ratio related to the first gear and the second gear, and wherein said first rotation parameter of said first gear is not equal to said second rotation parameter of said second gear; and (e) comparing at said evaluation system said first condition indicator with said second condition indicator to generate a comparison condition indicator . (a) receiving at an evaluation system gear train rotation information relating to rotation of said gear train; (b) receiving at said evaluation system vibration information relating to vibration of said device , said vibration of said device comprising vibration coupled from said gear train; (c) determining at said evaluation system a first condition indicator for said first gear based on processing said vibration information relative to a first rotation parameter of said first gear , wherein said first rotation parameter is determined from said gear train rotation information ; (d) determining at said evaluation system a second condition indicator for said second gear based on processing said vibration information relative to a second rotation parameter of said second gear, wherein said second rotation parameter is determined from said gear train rotation information , wherein the first rotation parameter and the second rotation parameter are further determined, for each of the first gear and the second gear, based on a predetermined gear ratio related to the first gear and the second gear, and wherein said first rotation parameter of said first gear is not equal to said second rotation parameter of said second gear; and (e) comparing at said evaluation system said first condition indicator with said second condition indicator to generate a comparison condition indicator .
Measuring rod with a longitudinal axis (A) for insertion in the flow cross section of a tube and for the verification of a flowing medium in this tube, comprising at least one first sender unit for the transmission of a first acoustic or electromagnetic measuring signal and at least one first receiver unit for receiving the first measuring signal, wherein the first sender unit and the first receiver unit define a measuring section, wherein the first sender unit is arranged in such a manner that the first measuring signal crosses the measuring section and wherein the first receiver unit is arranged in such a manner that it, at least during operation without flow, receives the first measuring signal after crossing the measuring section, wherein the measuring rod has a recess extending along its longitudinal axis (A), characterized in that at least one longitudinal surface and two end faces are formed by the recess in the measuring rod and the measuring section is formed in the recess between the two end faces , that a second longitudinal surface is additionally formed by the recess in the measuring rod , wherein the first longitudinal surface and the second longitudinal surface meet at a longitudinal edge and comprise an angle and wherein, during operation of the measuring rod, the second longitudinal surface is arranged in front of the measuring section in terms of flow direction.
A method for detecting microscopic objects of foreign origin present in a fluid, the microscopic object of foreign origin being not formed of the fluid itself, the method comprising: obtaining prepared image data originating from a hologram digital image frame captured by an image sensor receiving light propagated across a sample volume, containing a fluid possibly comprising microscopic objects of foreign origin, while illuminating the sample volume by coherent light, whereby the possible microscopic objects scatter part of the light, the scattered and non-scattered light interfering so as to form interference fringes behind the microscopic objects, the prepared image data comprising, for a microscopic object, a prepared hologram pattern with prepared spatially alternating intensity formed by the interference fringes; providing filtered image data, comprising automatically filtering the prepared image data by an edge enhancing filter, the filtered image data comprising, for a prepared hologram pattern present in the prepared image data, a filtered hologram pattern, said filtering the prepared image data initially producing, for a prepared hologram pattern, filtered spatially alternating intensity component with positive and negative values, wherein providing the filtered image data further comprises automatically converting the negative values into their absolute values; and automatically detecting , on the basis of the filtered hologram pattern, the presence of the microscopic object associated with the filtered hologram pattern in the sample volume of the fluid. obtaining prepared image data originating from a hologram digital image frame captured by an image sensor receiving light propagated across a sample volume, containing a fluid possibly comprising microscopic objects of foreign origin, while illuminating the sample volume by coherent light, whereby the possible microscopic objects scatter part of the light, the scattered and non-scattered light interfering so as to form interference fringes behind the microscopic objects, the prepared image data comprising, for a microscopic object, a prepared hologram pattern with prepared spatially alternating intensity formed by the interference fringes; providing filtered image data, comprising automatically filtering the prepared image data by an edge enhancing filter, the filtered image data comprising, for a prepared hologram pattern present in the prepared image data, a filtered hologram pattern, said filtering the prepared image data initially producing, for a prepared hologram pattern, filtered spatially alternating intensity component with positive and negative values, wherein providing the filtered image data further comprises automatically converting the negative values into their absolute values; and automatically detecting , on the basis of the filtered hologram pattern, the presence of the microscopic object associated with the filtered hologram pattern in the sample volume of the fluid.
A mobile lawn mowing, remote telepresence or floor cleaning robot including a scanning optical range finder , comprising: an optical emitter circuit (140; 440); a non-imaging optical element arranged to receive distinct optical signals at an entrance aperture thereof responsive to operation of the optical emitter circuit and to direct the optical signals to an output aperture thereof; an optical detector circuit configured to receive the optical signals from the output aperture of the non-imaging optical element and to generate respective detection signals based on respective phase differences of the optical signals relative to corresponding outputs of the optical emitter circuit; and a ranging circuit coupled to the optical detector circuit and configured to calculate a plurality of distances from the phase differences indicated by the detection signals, and to identify one of the plurality of distances as a range of a target, wherein the non-imaging optical element comprises a compound parabolic collector element including a parabolic surface defining the entrance and output apertures at opposing ends thereof and a flange extending around a periphery of the parabolic surface adjacent the entrance aperture thereof, the flange having a greater diameter than the entrance aperture and defining a lip protruding from the parabolic surface , and further comprising: a rotatable turret comprising collection optics that are arranged to direct the optical signals to the compound parabolic collector element responsive to rotation of the rotatable turret . an optical emitter circuit (140; 440); a non-imaging optical element arranged to receive distinct optical signals at an entrance aperture thereof responsive to operation of the optical emitter circuit and to direct the optical signals to an output aperture thereof; an optical detector circuit configured to receive the optical signals from the output aperture of the non-imaging optical element and to generate respective detection signals based on respective phase differences of the optical signals relative to corresponding outputs of the optical emitter circuit; and a ranging circuit coupled to the optical detector circuit and configured to calculate a plurality of distances from the phase differences indicated by the detection signals, and to identify one of the plurality of distances as a range of a target, wherein the non-imaging optical element comprises a compound parabolic collector element including a parabolic surface defining the entrance and output apertures at opposing ends thereof and a flange extending around a periphery of the parabolic surface adjacent the entrance aperture thereof, the flange having a greater diameter than the entrance aperture and defining a lip protruding from the parabolic surface , and further comprising:
Logic circuitry (204, 400a-d, 806, 900, 1302, 1401, 1501) having an address and comprising a logic circuit (402, 402a-e, 1403), wherein the address is an I2C address for the logic circuit (402, 402a-e, 1403), and wherein the logic circuitry is characterised by being configured such that, in response to a command indicative of a task and a time period sent to the address, the logic circuit is to, for a duration of the time period: (i) perform the task, and (ii) disregard I2C traffic sent to the address. (i) perform the task, and (ii) disregard I2C traffic sent to the address.
A manifold apparatus for a solar heating or cooling apparatus comprising: a first conduit and a second conduit , wherein the second conduit is located within the first conduit and wherein the first conduit and/or the second conduit are at least partially resilient, and wherein the first conduit is sealed at one end thereof and the first and second conduits are configured such that a fluid flow path exists between the first and second conduits, and wherein the first conduit includes one or more thermal transfer points , characterised in that each thermal transfer point includes a solar heat source member attachment point, wherein each thermal transfer point includes an attachment member for the solar heat source member, wherein the attachment member surrounds a portion of the outer surface of the solar heat source member, and wherein the attachment member is releasably securable to the first conduit . a first conduit and a second conduit , wherein the second conduit is located within the first conduit and wherein the first conduit and/or the second conduit are at least partially resilient, and wherein the first conduit is sealed at one end thereof and the first and second conduits are configured such that a fluid flow path exists between the first and second conduits, and wherein the first conduit includes one or more thermal transfer points , characterised in that each thermal transfer point includes a solar heat source member attachment point, wherein each thermal transfer point includes an attachment member for the solar heat source member, wherein the attachment member surrounds a portion of the outer surface of the solar heat source member, and wherein the attachment member is releasably securable to the first conduit .
A display device of a vehicle, the display device comprising: a rotational speed display unit including a dial plate section including scale markings to indicate a rotational speed of a motor, and an indicator needle member which is movable with respect to the dial plate section according to the rotational speed of the motor, and points one of the scale markings (21 a); a threshold determiner unit which determines whether or not the rotational speed of the motor has exceeded a predetermined threshold; and a display configuration control unit which changes a display configuration of the indicator needle member , wherein the display configuration control unit urges a rider to perform a shift-up operation of a transmission by changing a display configuration of the indicator needle member , when the threshold determiner unit determines that the rotational speed has exceeded the predetermined threshold, characterized in that the rotational speed display unit includes a light source provided on a back side of the dial plate section , the indicator needle member includes a tip end portion which points the scale marking , and a display configuration of the tip end portion is unchanged when the threshold determiner unit determines that the rotational speed has exceeded the predetermined threshold, the tip end portion has a non-transparent color, and a remaining portion of the indicator needle member emits light by the light source , the remaining portion being different from the tip end portion . a rotational speed display unit including a dial plate section including scale markings to indicate a rotational speed of a motor, and an indicator needle member which is movable with respect to the dial plate section according to the rotational speed of the motor, and points one of the scale markings (21 a); a threshold determiner unit which determines whether or not the rotational speed of the motor has exceeded a predetermined threshold; and a display configuration control unit which changes a display configuration of the indicator needle member , wherein the display configuration control unit urges a rider to perform a shift-up operation of a transmission by changing a display configuration of the indicator needle member , when the threshold determiner unit determines that the rotational speed has exceeded the predetermined threshold, characterized in that the rotational speed display unit includes a light source provided on a back side of the dial plate section , the indicator needle member includes a tip end portion which points the scale marking , and a display configuration of the tip end portion is unchanged when the threshold determiner unit determines that the rotational speed has exceeded the predetermined threshold, the tip end portion has a non-transparent color, and a remaining portion of the indicator needle member emits light by the light source , the remaining portion being different from the tip end portion .
An engineered cell comprising a polynucleotide encoding a chimeric antigen receptor polypeptide (CAR), wherein the CAR comprises: a signal peptide, an antigen recognition domain, a hinge region, a transmembrane domain, at least one costimulatory domain, and a signaling domain; and wherein the cell is selected from the group consisting of a T cell or a NK cell: - wherein the CAR targets CD2, and wherein the CD2 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD3, CD4, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD3, and wherein the CD3 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD4, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD4, and wherein the CD4 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD5, and wherein the CD5 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD4 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD7, and wherein the CD7 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD4 and CD5 endogenous to the cell are further knocked-out or inactivated. - wherein the CAR targets CD2, and wherein the CD2 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD3, CD4, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD3, and wherein the CD3 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD4, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD4, and wherein the CD4 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD5 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD5, and wherein the CD5 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD4 and CD7 endogenous to the cell are further knocked-out or inactivated; - wherein the CAR targets CD7, and wherein the CD7 endogenous to the cell is knocked out or inactivated, and optionally wherein one or more of CD2, CD3, CD4 and CD5 endogenous to the cell are further knocked-out or inactivated.
A method for weaving a fibrous structure intended to form the fibrous reinforcement of a turbomachine blade made of composite material comprising a fibrous reinforcement densified by a matrix, the fibrous structure being woven as a single piece on a loom by three-dimensional or multilayer weaving between a plurality of warp yarn layers and a plurality of weft yarn layers , the fibrous structure comprising a blade root preform , characterised in that it comprises at least one first weaving step in which the warp yarns and the weft yarns are woven according to a first type of weave so as to form a first portion of the blade root preform of the fibrous structure, and a second weaving step in which the warp yarns and the weft yarns are woven according to a second type of weave so as to form a second portion of the blade root preform of the fibrous structure continuing on from the first portion and located downstream of the first portion in the direction of advance of the fibrous structure at the outlet of the loom, the warp yarns and the weft yarns having a degree of interweaving in the first type of weave greater than the degree of interweaving of the warp yarns and the weft yarns present in the second type of weave, the degree of interweaving corresponding to the ratio of the number of layers of yarns crossed by the warp yarns or the weft yarns divided by the product of the weave ratio, the spacing between two weft columns and the spacing between two warp columns.