mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a pattern, the method comprising: providing a pattern of a first liquid and a colored ink on a print medium, the colored ink configured to restrain the first liquid from moving on the print medium, wherein: the colored ink is applied by an inkjet method after the first liquid is applied, and the first liquid is a reaction liquid configured to react with the colored ink; applying a powder material to the pattern, wherein the powder material comprises a thermoplastic resin; removing the powder material not adhering to the pattern to form a pattern of the powder material; heating and melting the formed pattern of the powder material; and adjusting a thickness of the pattern of the first liquid and the colored ink by reducing solvent content of the pattern between providing the pattern of the first liquid and the colored ink and applying the powder material to the pattern, wherein the colored ink is a pigment ink, and the first liquid comprises a metal salt configured to act on the pigment ink, and wherein the thickness of the pattern of the first liquid and the colored ink at the application of the powder material is 20% or less of the diameter of the particles of the powder material applied. providing a pattern of a first liquid and a colored ink on a print medium, the colored ink configured to restrain the first liquid from moving on the print medium, wherein: the colored ink is applied by an inkjet method after the first liquid is applied, and the first liquid is a reaction liquid configured to react with the colored ink; applying a powder material to the pattern, wherein the powder material comprises a thermoplastic resin; removing the powder material not adhering to the pattern to form a pattern of the powder material; heating and melting the formed pattern of the powder material; and adjusting a thickness of the pattern of the first liquid and the colored ink by reducing solvent content of the pattern between providing the pattern of the first liquid and the colored ink and applying the powder material to the pattern, wherein the colored ink is a pigment ink, and the first liquid comprises a metal salt configured to act on the pigment ink, and wherein the thickness of the pattern of the first liquid and the colored ink at the application of the powder material is 20% or less of the diameter of the particles of the powder material applied.
Rotor with tools, such as saw segments or tip segments, disposed at its outer circumference, wherein the tools are strip-shaped and inserted into grooves (5, 6) which are provided in retaining strips disposed in the rotor, wherein the retaining strips are accommodated in a form-fit manner in dovetailed grooves in the rotor, which dovetailed grooves are provided at the circumferential surface of the drum-shaped rotor, wherein the retaining strips are clamped by set-screws in the grooves of the rotor and wherein the set-screws rest at the base of the grooves in the rotor, characterised in that the longitudinal edges of the retaining strips engage in an undercut region of the grooves in the rotor, that the retaining strips comprise a base part, which engages in a recessed region of the grooves in the rotor and that the ends of the tools projecting above the retaining strips lie adjacent to the side walls of the grooves of the rotor.
A method of processing a division operation, the method comprising: acquiring input data; detecting reference data related to a division operation corresponding to the acquired input data, from a cache memory in which data related to at least one division operation is pre-stored; determining a difference calculated between an input dividend included in the input data and a reference dividend included in the reference data, in response to an input divisor included in the input data corresponding to a reference divisor included in the reference data; selecting any one operator from among a plurality of operators identified according to at least one of a processable number of data bits and a calculation type, based on the difference; and acquiring a result of performing the division operation on the input data from the selected operator. acquiring input data; detecting reference data related to a division operation corresponding to the acquired input data, from a cache memory in which data related to at least one division operation is pre-stored; determining a difference calculated between an input dividend included in the input data and a reference dividend included in the reference data, in response to an input divisor included in the input data corresponding to a reference divisor included in the reference data; selecting any one operator from among a plurality of operators identified according to at least one of a processable number of data bits and a calculation type, based on the difference; and acquiring a result of performing the division operation on the input data from the selected operator.
A method for guided image up-sampling in video coding, the method comprising: receiving a first image of a first spatial resolution and a guide image of a second spatial resolution, wherein both the first image and the guide image represent similar scenes and the second spatial resolution is higher than the first spatial resolution; selecting a filter to up-sample the first image to a third image with a spatial resolution equal to the second spatial resolution; computing a set of filtering coefficients for the filter wherein the filtering coefficient computation is based, at least in part, on minimizing an error measurement between pixel values of the guide image and the third image; and transmitting the set of filtering coefficients to a decoder, wherein the first image comprises at least a first color component and a second color component, characterized in that the filter is a general 3D filter, that up-samples the first color component of the first image using the computed set of filtering coefficients, wherein the computed set of filtering coefficients comprises at least two sets of filtering coefficients, wherein the first set of the filtering coefficients operates on the first color component of the first image and the second set of filtering coefficients operates on the second color component of the first image. receiving a first image of a first spatial resolution and a guide image of a second spatial resolution, wherein both the first image and the guide image represent similar scenes and the second spatial resolution is higher than the first spatial resolution; selecting a filter to up-sample the first image to a third image with a spatial resolution equal to the second spatial resolution; computing a set of filtering coefficients for the filter wherein the filtering coefficient computation is based, at least in part, on minimizing an error measurement between pixel values of the guide image and the third image; and transmitting the set of filtering coefficients to a decoder, wherein the first image comprises at least a first color component and a second color component, characterized in that the filter is a general 3D filter, that up-samples the first color component of the first image using the computed set of filtering coefficients, wherein the computed set of filtering coefficients comprises at least two sets of filtering coefficients, wherein the first set of the filtering coefficients operates on the first color component of the first image and the second set of filtering coefficients operates on the second color component of the first image.
A test strip (310, 410, 510, 610, 710, 810, 1010) for testing of an analyte in a bodily or other fluid using multiple electrode arrays with different sensitivities to interferents, the test strip defining a capillary passageway, the passageway being dimensioned so as to induce movement of a sample of bodily fluid along a predetennined path through the passageway, the test strip comprising: a first set of electrodes (284, 480, 661, 1081) in electrical communication with the passageway for obtaining a first measurement correlated with the concentration of an analyte in the sample; and a second set of electrodes (280, 484, 572, 1082) in electrical communication with the passageway for obtaining a second measurement correlated with the analyte and one or more properties of the sample; characterized in that, one set of electrodes comprising a pair of electrodes with substantially parallel, interdigitated fingers, each electrode (284, 484, 661, 1082) having at least two fingers, and each of the fingers being less than about 50 μm from the nearest other finger, and the electrodes (280, 480, 572, 1081) of the other set being rectangular and having a separation greater than about 250 μm between nearest points thereof. a first set of electrodes (284, 480, 661, 1081) in electrical communication with the passageway for obtaining a first measurement correlated with the concentration of an analyte in the sample; and a second set of electrodes (280, 484, 572, 1082) in electrical communication with the passageway for obtaining a second measurement correlated with the analyte and one or more properties of the sample; characterized in that, one set of electrodes comprising a pair of electrodes with substantially parallel, interdigitated fingers, each electrode (284, 484, 661, 1082) having at least two fingers, and each of the fingers being less than about 50 μm from the nearest other finger, and the electrodes (280, 480, 572, 1081) of the other set being rectangular and having a separation greater than about 250 μm between nearest points thereof.
A method of interfacing a non-sterile sensor to a sterile flow stream, comprising: a. providing components comprising said sterile flow stream, said components comprising a receptacle for attachment of said sensor; b. covering said receptacle with a separation membrane; c. sterilizing said components and said membrane; and d. attaching said sensor to said receptacle while leaving said separation membrane in place, characterised by the receptacle being incorporated into a bioreactor bag, its outlet conduit, its inlet conduit or a surrounding structure supporting the bioreactor bag. a. providing components comprising said sterile flow stream, said components comprising a receptacle for attachment of said sensor; b. covering said receptacle with a separation membrane; c. sterilizing said components and said membrane; and d. attaching said sensor to said receptacle while leaving said separation membrane in place,
A method for operating phase change memory cells (400, 1500, 1600, 1700), comprising: writing data by inducing a first resistance state in some of the phase change memory cells which is distinguishable from a second resistance state in others of the phase change memory cells (400, 1500, 1600, 1700), the first resistance state corresponding to a crystalline phase active region (410, 1510, 1610, 1710) having a first morphology, and the second resistance state having a higher resistance than the first resistance state and corresponding to the crystalline phase active region (410, 1510, 1610, 1710) having a second morphology; after the writing, mounting an integrated circuit (1030, 1830) including the phase change memory cells (400, 1500, 1600, 1700); after the mounting, changing the phase change memory cells (400, 1500, 1600, 1700) in the first resistance state to a third resistance state being an amorphous state and changing the phase change memory cells (400, 1500, 1600, 1700) in the second resistance state to a fourth resistance state; and reading data in the phase change memory cells (400, 1500, 1600, 1700) by sensing the third and the fourth resistance states, wherein the crystalline phase corresponding to the first resistant state has a first structure and a first stoichiometry, the crystalline phase corresponding to the second resistant state has a second structure and a second stoichiometry, the first structure differs from the second structure, and the first stoichiometry differs from the second stoichiometry. writing data by inducing a first resistance state in some of the phase change memory cells which is distinguishable from a second resistance state in others of the phase change memory cells (400, 1500, 1600, 1700), the first resistance state corresponding to a crystalline phase active region (410, 1510, 1610, 1710) having a first morphology, and the second resistance state having a higher resistance than the first resistance state and corresponding to the crystalline phase active region (410, 1510, 1610, 1710) having a second morphology; after the writing, mounting an integrated circuit (1030, 1830) including the phase change memory cells (400, 1500, 1600, 1700); after the mounting, changing the phase change memory cells (400, 1500, 1600, 1700) in the first resistance state to a third resistance state being an amorphous state and changing the phase change memory cells (400, 1500, 1600, 1700) in the second resistance state to a fourth resistance state; and reading data in the phase change memory cells (400, 1500, 1600, 1700) by sensing the third and the fourth resistance states, wherein the crystalline phase corresponding to the first resistant state has a first structure and a first stoichiometry, the crystalline phase corresponding to the second resistant state has a second structure and a second stoichiometry, the first structure differs from the second structure, and the first stoichiometry differs from the second stoichiometry.
A computer readable medium storing a computer program for execution by at least one processor, the computer program comprising sets of instructions for: receiving a particular content that comprises a plurality of lines of object code along with a digital signature generated from only a selected set of bits from each line of object code, each line of object code comprising a selected set of bits and non-selected set of bits; and verifying the authenticity of the entire particular content by recomputing a digest used in the derivation of the digital signature, the recomputed digest derived from only the selected sets of bits used to generate the digital signature. receiving a particular content that comprises a plurality of lines of object code along with a digital signature generated from only a selected set of bits from each line of object code, each line of object code comprising a selected set of bits and non-selected set of bits; and verifying the authenticity of the entire particular content by recomputing a digest used in the derivation of the digital signature, the recomputed digest derived from only the selected sets of bits used to generate the digital signature.
A body positioning aid for deterring undesirable sleeping posture in human subjects, comprising a dome; and a flexible annulus positioned at the base of said dome, said annulus having a substantially planar lower surface positionable in proximity with a human subject's skin in a region of a human subject's body which will deter a human subject from maintaining an undesirable sleeping posture, said annulus being flexible to enable conformity relative to the contour of that skin, characterized by: a plurality of arcuate ridges (18a-18d) positioned orthogonally on the outer surface near the center of said dome, said plurality of arcuate ridges (18a-18d) comprising cylindrical convex elevations that together form a cross-shaped eminence centered on the apex of said dome, said plurality of arcuate ridges (18a-18d) being elevated above said outer surface of said dome, said plurality of arcuate ridges (18a-18d) providing structural strength to said dome; said substantially planar lower surface comprising a plurality of surface recesses that depart from the substantially planar shape of said lower surface such that when operatively positioned on the skin of a human subject in a region of a human subject's body which will deter a human subject from maintaining an undesirable sleeping posture, said surface recesses form an opening defining airflow apertures which allow for air exchange between said annulus and the skin; and a contact adhesive on said substantially planar lower surface of said annulus for adhering said annulus to the skin of a human subject in a region of a human subject's body which will deter a human subject from maintaining an undesirable sleeping posture. a plurality of arcuate ridges (18a-18d) positioned orthogonally on the outer surface near the center of said dome, said plurality of arcuate ridges (18a-18d) comprising cylindrical convex elevations that together form a cross-shaped eminence centered on the apex of said dome, said plurality of arcuate ridges (18a-18d) being elevated above said outer surface of said dome, said plurality of arcuate ridges (18a-18d) providing structural strength to said dome; said substantially planar lower surface comprising a plurality of surface recesses that depart from the substantially planar shape of said lower surface such that when operatively positioned on the skin of a human subject in a region of a human subject's body which will deter a human subject from maintaining an undesirable sleeping posture, said surface recesses form an opening defining airflow apertures which allow for air exchange between said annulus and the skin; and a contact adhesive on said substantially planar lower surface of said annulus for adhering said annulus to the skin of a human subject in a region of a human subject's body which will deter a human subject from maintaining an undesirable sleeping posture.
A variable delay interface configured to introduce a controllable, variable delay between a first equipment and a second equipment, the variable delay interface comprising: a variable rate change filter, VRCF, having a signal input, a signal output, and a rate control input, the VRCF configured to: receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; a first in first out, FIFO, buffer having an input and an output, the FIFO buffer configured to store samples of the VRCF output signal received at the FIFO buffer input and introduce a second delay in the stored samples to produce a FIFO buffer output signal at the FIFO buffer output; and a delay control unit configured to: add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF. a variable rate change filter, VRCF, having a signal input, a signal output, and a rate control input, the VRCF configured to: receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; a first in first out, FIFO, buffer having an input and an output, the FIFO buffer configured to store samples of the VRCF output signal received at the FIFO buffer input and introduce a second delay in the stored samples to produce a FIFO buffer output signal at the FIFO buffer output; and a delay control unit configured to: add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF. add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF.
A fixation device for tissue repair comprising at least one of angiogenic material or angiogenic precursor material which is capable of breaking down in vivo to form angiogenic material, wherein the angiogenic material is in admixture with polypropylene, wherein said angiogenic material comprises one or more of butyric acid; butyric acid salt; α-monobutyrin; α-dibutyrin; β-dibutyrin; tributyrin; or hydroxybutyrate.
A method of making a chlorinated, brominated or iodinated fluorinated ether-containing compound from a fluoroolefin, the method comprising: (i) chlorinating, brominating or iodinating a difluorosulfuryl peroxide followed by reaction with a first fluoroolefin to form a chlorinated, brominated or iodinated fluoroorganyl acid fluoride; (ii) reacting the chlorinated, brominated or iodinated fluoroorganyl acid fluoride with first compound selected from at least one of: (a) a second fluoroolefin in the presence of I 2, Br 2 or XY n, where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound. (i) chlorinating, brominating or iodinating a difluorosulfuryl peroxide followed by reaction with a first fluoroolefin to form a chlorinated, brominated or iodinated fluoroorganyl acid fluoride; (ii) reacting the chlorinated, brominated or iodinated fluoroorganyl acid fluoride with first compound selected from at least one of: (a) a second fluoroolefin in the presence of I 2, Br 2 or XY n, where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound. (a) a second fluoroolefin in the presence of I 2, Br 2 or XY n, where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound.
Vehicle tank consisting of a container with a cohesive volume and at least two baffle plates (11a, 11b) which extend perpendicularly to the longitudinal axis of the container, wherein the swirl pot is filled via a filler pipe, and the baffle plates with the walls of the container form a swirl pot in that they are directly and tightly connected to the container, wherein the baffle plates (11a, 11b) have at least one orifice which lies above the formed swirl pot, and the baffle plates within the swirl pot have valves which allow the inflow of fuel into the swirl pot, characterized in that the orifices are formed as sieves and a valve for drainage is arranged on the base of the swirl pot.