mhurhangee/patent-ind-claim-en huggingface dataset:
An intravascular pulsed electric field (PEF) apparatus configured to effectuate electroporation in target cells, comprising: a catheter and an expandable distal basket formed from a plurality of circumferential struts or members, wherein the basket has a plurality of electrodes formed along the members of the basket , wherein the electrodes are configured to physically contact a vessel wall for delivery of a pulsed electric field when the basket is expanded, and wherein the basket members are coupled to the catheter at proximal and distal connections, respectively, and wherein individual electrodes are arranged along each basket member. a catheter and an expandable distal basket formed from a plurality of circumferential struts or members, wherein the basket has a plurality of electrodes formed along the members of the basket , wherein the electrodes are configured to physically contact a vessel wall for delivery of a pulsed electric field when the basket is expanded, and wherein the basket members are coupled to the catheter at proximal and distal connections, respectively, and wherein individual electrodes are arranged along each basket member.
Method for producing a piston of an internal combustion engine, wherein at least one cavity is created within the piston , which cavity is filled with a cooling medium and subsequently closed, wherein at least two cavities are introduced into the piston from a central point of the piston and the cavities are closed in the region of the central point after the cooling medium has been filled in, characterized in that the central point is formed in the region of a later combustion chamber cavity , wherein the central point is closed with a closure element comprising a corresponding geometry.
A display method using a display operable to display an image to a viewer, the method comprising: detecting an initial position and/or orientation of the viewer's head; generating , by a video signal source, an image, hereafter referred to as a generated image, for display according to the detected initial position and/or orientation; detecting a current position and/or orientation of the viewer's head depending upon a display time at which the image is to be displayed; re-projecting , by an image re-projector, the generated image according to any differences between the initial position and/or orientation and the current position and/or orientation of the viewer's head, in which the step of re-projecting comprises detecting an overlapping portion between the generated image and the required re-projected image, and reproducing the overlapping portion as part of the re-projected image; storing a panoramic image to provide a further image source to fill portions of the re-projected image other than the overlapping portion, the panoramic image having been captured or prepared for this purpose; filling portions of the re-projected image other than the overlapping portion with image material from the further image source; and displaying the re-projected image using the display, in which the generating step comprises associating metadata with the generated image, the metadata indicating the initial position and/or orientation of the viewer's head. detecting an initial position and/or orientation of the viewer's head; generating , by a video signal source, an image, hereafter referred to as a generated image, for display according to the detected initial position and/or orientation; detecting a current position and/or orientation of the viewer's head depending upon a display time at which the image is to be displayed; re-projecting , by an image re-projector, the generated image according to any differences between the initial position and/or orientation and the current position and/or orientation of the viewer's head, in which the step of re-projecting comprises detecting an overlapping portion between the generated image and the required re-projected image, and reproducing the overlapping portion as part of the re-projected image; storing a panoramic image to provide a further image source to fill portions of the re-projected image other than the overlapping portion, the panoramic image having been captured or prepared for this purpose; filling portions of the re-projected image other than the overlapping portion with image material from the further image source; and displaying the re-projected image using the display, in which the generating step comprises associating metadata with the generated image, the metadata indicating the initial position and/or orientation of the viewer's head.
A computer-implemented method of navigating an autonomous driving vehicle, ADV, the method comprising: sampling a plurality of points from a centerline of a lane of a first portion of a roadway to generate a plurality of sample points; for each sample point in the plurality of sample points, generating a plurality of adjustment points associated with the sample point, the adjustment points in a region surrounding the sample point, wherein the sample point and the plurality of adjustment points comprise candidate points for the sample point; generating a first lowest cost path through a candidate point for each sample point of the plurality of sample points; navigating the ADV along the first lowest cost path for the first portion of the roadway; characterized in that a density of the sampling of points in the plurality of sample points is higher in a portion of the roadway containing a curve than in a portion of the roadway that is substantially straight. sampling a plurality of points from a centerline of a lane of a first portion of a roadway to generate a plurality of sample points; for each sample point in the plurality of sample points, generating a plurality of adjustment points associated with the sample point, the adjustment points in a region surrounding the sample point, wherein the sample point and the plurality of adjustment points comprise candidate points for the sample point; generating a first lowest cost path through a candidate point for each sample point of the plurality of sample points; navigating the ADV along the first lowest cost path for the first portion of the roadway; characterized in that a density of the sampling of points in the plurality of sample points is higher in a portion of the roadway containing a curve than in a portion of the roadway that is substantially straight.
An apparatus of a user equipment, UE, configured to operate in a high speed train, HST, environment, the apparatus comprising: one or more processors configured to: identify the UE is operating in the HST environment; configure the UE in a radio resource control connected, RRC_Connected, mode; decode network assistant information for the UE operating in the HST environment, wherein the network assistant information includes: a number of cells to be measured in the RRC_Connected mode while operating in the HST environment, wherein the number of cells is included in a maxCellsMeasHST parameter, wherein the maxCellsMeasHST parameter is a subset of a maximum cells to be measured, maxCellsMeas, and the measurement of the subset increases a cell detection speed at the UE; and, memory coupled to the one or more processors and configured to store the maxCellsMeasHST parameter; wherein the one or more processors are configured to encode the one or more channel quality measurements in a measurement object EUTRA, MeasObjectEUTRA, information element; and wherein the network assistant information further comprises a MeasObjectEUTRA information element that includes an HST cell identification indicator, cellIDIndHST operable to indicate a cell identification, ID, of a target cell that the UE will select for handover, wherein the cellIDIndHST includes a Boolean to indicate that a detection procedure of a target cell identification, ID, will be skipped to eliminate a time used to search for a physical cell ID, PCID, of the target cell that the UE will select for handover. identify the UE is operating in the HST environment; configure the UE in a radio resource control connected, RRC_Connected, mode; decode network assistant information for the UE operating in the HST environment, wherein the network assistant information includes: a number of cells to be measured in the RRC_Connected mode while operating in the HST environment, wherein the number of cells is included in a maxCellsMeasHST parameter, wherein the maxCellsMeasHST parameter is a subset of a maximum cells to be measured, maxCellsMeas, and the measurement of the subset increases a cell detection speed at the UE; and,
A load control system for controlling one or more electrical loads , the load control system comprising: a plurality of control devices each comprising a user interface configured to receive a user input and each configured to control at least one of the one or more electrical loads , wherein the user interface includes an illuminated portion; and a first daylight sensor external to at least one of the plurality of control devices and configured to sense a light level in a space in which the plurality of control devices is installed; characterized in that a first control device of the plurality of control devices comprises the first daylight sensor, and the plurality of control devices are each configured to receive a signal indicative of the light level sensed by the first daylight sensor; wherein the plurality of control devices are configured to control their respective illuminated portions in proportion to the light level sensed by the first daylight sensor. a plurality of control devices each comprising a user interface configured to receive a user input and each configured to control at least one of the one or more electrical loads , wherein the user interface includes an illuminated portion; and a first daylight sensor external to at least one of the plurality of control devices and configured to sense a light level in a space in which the plurality of control devices is installed; characterized in that a first control device of the plurality of control devices comprises the first daylight sensor, and the plurality of control devices are each configured to receive a signal indicative of the light level sensed by the first daylight sensor; wherein the plurality of control devices are configured to control their respective illuminated portions in proportion to the light level sensed by the first daylight sensor.
Roof assembly for a convertible, wherein a roof is able to be moved into an open position and into a closed position, comprising a multiplicity of roof bows and links , wherein the roof bows and links are movable relative to one another by means of drivable roof kinematics, and wherein, in at least one roof component, a rivet or a rivet nut is arranged, wherein the roof component is a first roof bow or a first link or a body-mounted bearing point that is configured as a mechanical stop for a second roof bow or a second link that is movable relative to the roof component, wherein the rivet or the rivet nut is produced from a metallic material, wherein the rivet or the rivet nut has a non-metallic material at least at the contact point between the rivet or the rivet nut and the second roof bow or the second link , wherein the rivet and/or the rivet nut has/have a first material component (1.1, 2.1, 3.1), wherein the first material component (1.1, 2.1, 3.1) is metallic, and has/have a second material component (1.2, 2.2, 3.2), wherein the second material component (1.2, 2.2, 3.2) is non-metallic, characterized in that the rivet or the rivet nut is configured as a lateral mechanical stop or as a vertical mechanical stop, in that the first material component (1.1, 2.1, 3.1) is formed geometrically in a head portion of the rivet or of the rivet nut such that a form-fitting connection between the first material component (1.1, 2.1, 3.1) and second material component (1.2, 2.2, 3.2) is achieved, wherein the second material component (1.2, 2.2, 3.2) is applied at least locally to the first material component (1.1, 2.1, 3.1) by overmoulding, wherein the overmoulding of the rivet or of the rivet nut is formed in the region of the head portion.
A separation device for particles from a fluid flow, comprising a centrifugal separator , wherein the centrifugal separator comprises • a separation chamber , • a fluid inlet , • at least two dip tubes , and • at least one particle discharge opening , characterized in that the separation chamber is substantially formed as a rotational body, wherein the rotational body has a casing and two end faces , wherein the fluid inlet leads into said separation chamber tangentially to the surface of the casing and wherein one dip tube is situated in one of the end faces and the other dip tube being situated in the other end face , characterized in that the particle discharge opening extends radially to the generated surface of the rotational body • a separation chamber , • a fluid inlet , • at least two dip tubes , and • at least one particle discharge opening ,
A monoclonal antibody to human MUC1, specifically recognizing human MUC1 tandem units and glycopeptides having an O-bond-type sugar chain core 0 (Tn) on threonine at the position eight in the amino acid sequence of the human MUC1 tandem units denoted by SEQ ID NO: 1, wherein said antibody comprises at least one antigen-binding portion comprising an immunoglobulin heavy chain variable region (VH) domain and an immunoglobulin light chain variable region (VL) domain, with the heavy chain variable region domain comprising in the sequence thereof complementarity determining regions CDR1, CDR2, and CDR3, with CDR1 being comprised of the amino acid sequence shown by SEQ ID NO: 8, CDR2 being comprised of the amino acid sequence of SEQ ID NO: 9, and CDR3 being comprised of the amino acid sequence shown by SEQ ID NO: 10, with the light chain variable region domain comprising in the sequence thereof complementarity determining regions CDR1', CDR2', and CDR3', with CDR1' being comprised of the amino acid sequence shown by SEQ ID NO: 11, CDR2' being comprised of the amino acid sequence of SEQ ID NO: 12, and CDR3' being comprised of the amino acid sequence shown by SEQ ID NO: 13; or wherein said antibody comprises at least one antigen-binding portion comprising an immunoglobulin heavy chain variable region (VH) domain and an immunoglobulin light chain variable region (VL) domain, with the heavy chain variable region domain comprising in the sequence thereof complementarity determining regions CDR1, CDR2, and CDR3, with CDR1 being comprised of the amino acid sequence shown by SEQ ID NO: 16, CDR2 being comprised of the amino acid sequence of SEQ ID NO: 17, and CDR3 being comprised of the amino acid sequence shown by SEQ ID NO: 18, with the light chain variable region domain comprising in the sequence thereof complementarity determining regions CDR1', CDR2', and CDR3', with CDR1' being comprised of the amino acid sequence shown by SEQ ID NO: 19, CDR2' being comprised of the amino acid sequence of SEQ ID NO: 20, and CDR3' being comprised of the amino acid sequence shown by SEQ ID NO: 21.
Cell-free combination for use - in the controlled, especially decelerated or retarded, release of active ingredient, wherein the cell-free combination comprises a first component and a second component, the first component comprising crosslinkable albumin and the second component comprising a crosslinking agent for the albumin, characterized in that the crosslinkable albumin has a degree of functionalization of 5 groups to 35 groups per albumin molecule, the crosslinking agent has a degree of functionalization of at least two groups per individual crosslinking agent molecule or, in the case of a polymeric crosslinking agent in which nonterminal monomer units and optionally also terminal monomer units are functionalized, per 100 monomer units of the polymeric crosslinking agent, the crosslinkable albumin has a fraction of 0.1 wt% to 11 wt%, based on the total volume of the cell-free combination, and the crosslinking agent has a fraction of 0.1 wt% to 30 wt%, based on the total volume of the cell-free combination, and the first component and/or the second component further comprise an active ingredient, the active ingredient being an antibody, a Fab fragment of an antibody, and/or a chondroprotective agent. - in the controlled, especially decelerated or retarded, release of active ingredient,
A processor configured to receive data from a tracker arrangement of a rotary wing aircraft and to implement a method for aiding landing of the rotary wing aircraft in conditions of reduced visibility to a pilot of the rotary wing aircraft, the method comprising: determining a line of sight of the pilot based on data from the tracker arrangement ; obtaining a location of a designated landing point with respect to the rotary wing aircraft; generating a synthetic representation of a landing area at the designated landing point according to the determined line of sight of the pilot, the synthetic representation comprising simulated three dimensional conformal symbology (220-224, 242-248, 254-264, 282-290, 302, 304, 320-326) representative of three dimensional markers fixed relative to the designated landing point; providing the synthetic representation to be displayed on a head mounted display of the pilot, obtaining changes in location of the rotary wing aircraft with respect to the designated landing point; and changing the size and/or shape of the symbology to be displayed to the pilot such that it is conformal with the obtained changes in location of the rotary wing aircraft with respect to the designated landing point. determining a line of sight of the pilot based on data from the tracker arrangement ; obtaining a location of a designated landing point with respect to the rotary wing aircraft; generating a synthetic representation of a landing area at the designated landing point according to the determined line of sight of the pilot, the synthetic representation comprising simulated three dimensional conformal symbology (220-224, 242-248, 254-264, 282-290, 302, 304, 320-326) representative of three dimensional markers fixed relative to the designated landing point; providing the synthetic representation to be displayed on a head mounted display of the pilot, obtaining changes in location of the rotary wing aircraft with respect to the designated landing point; and changing the size and/or shape of the symbology to be displayed to the pilot such that it is conformal with the obtained changes in location of the rotary wing aircraft with respect to the designated landing point.
A method for monitoring a gear system comprising at least two wheels, each wheel having a characteristic frequency (ƒ 1, ƒ 2 ) , a vibratory or acoustic signal representative of these vibrations having been acquired by a sensor , a vibratory or acoustic digital signal x(t) having been obtained, the method comprising, for each characteristic frequency of the system , the steps of: filtering (E1), by means of a filter, the digital signal so as to obtain an image monitoring signal of at least one vibratory component of at least one fault; determining (E3) the square envelope of said monitoring signal, defined by the squared absolute value of the Hilbert transform of the monitoring signal so as to extract an image of the modulating signals associated with the rotation of the wheels from the monitoring signal; determining (E4) the synchronous averaging of said square envelope relative to the period of rotation of a wheel of interest chosen among the wheels of the gear, said averaging allowing attenuating parasitic components in the envelope originating from other mechanical sources; determining (E5) a monitoring indicator as a function of said synchronous averaging, said monitoring indicator being defined by the square root of the synchronous averaging normalized by the median value of the synchronous averaging. filtering (E1), by means of a filter, the digital signal so as to obtain an image monitoring signal of at least one vibratory component of at least one fault; determining (E3) the square envelope of said monitoring signal, defined by the squared absolute value of the Hilbert transform of the monitoring signal so as to extract an image of the modulating signals associated with the rotation of the wheels from the monitoring signal; determining (E4) the synchronous averaging of said square envelope relative to the period of rotation of a wheel of interest chosen among the wheels of the gear, said averaging allowing attenuating parasitic components in the envelope originating from other mechanical sources; determining (E5) a monitoring indicator as a function of said synchronous averaging, said monitoring indicator being defined by the square root of the synchronous averaging normalized by the median value of the synchronous averaging.
A computer-implemented method of beam angle optimization comprising: executing, by at least one processor, a machine learning model that receives an input of data associated with a treatment plan for a patient and outputs a beam angle for the patient indicating a direction of radiation into the patient, wherein the machine learning model is trained using a training dataset comprising a training treatment plan and a corresponding score, wherein the machine learning model iteratively calculates a reward, using a policy, for a possible beam angle for the training treatment plan in the training dataset, and wherein the machine learning model iteratively increases a summation of rewards until the policy satisfies an accuracy threshold; and transmitting, by the at least one processor, the beam angle to a second processor. executing, by at least one processor, a machine learning model that receives an input of data associated with a treatment plan for a patient and outputs a beam angle for the patient indicating a direction of radiation into the patient, wherein the machine learning model is trained using a training dataset comprising a training treatment plan and a corresponding score, wherein the machine learning model iteratively calculates a reward, using a policy, for a possible beam angle for the training treatment plan in the training dataset, and wherein the machine learning model iteratively increases a summation of rewards until the policy satisfies an accuracy threshold; and wherein the machine learning model is trained using a training dataset comprising a training treatment plan and a corresponding score, wherein the machine learning model iteratively calculates a reward, using a policy, for a possible beam angle for the training treatment plan in the training dataset, and wherein the machine learning model iteratively increases a summation of rewards until the policy satisfies an accuracy threshold; and transmitting, by the at least one processor, the beam angle to a second processor.
A preparation method comprising the steps of: performing crosslinking polymerization of a monomer mixture in the presence of an internal crosslinking agent to form a water-containing gel polymer, the monomer mixture including water-soluble ethylene-based unsaturated monomers having acidic groups which are at least partially neutralized, a foaming agent, a foam promoter, and a surfactant; drying, pulverizing, and size-sorting the water-containing gel polymer to form a base polymer powder; and additionally crosslinking the surface of the base polymer powder in the presence of a surface crosslinking agent to form a surface-crosslinked layer, wherein an inorganic acid aluminum salt and/or an organic acid aluminum salt are/is used as the foam promoter.