mhurhangee/ep-ind-claims huggingface dataset:
An optical arrangement having a light source for generating a light beam (1, 12) having at least one light pulse and a plurality of chirped mirrors (3-6, 18, 19) arranged in a beam path of the light beam for influencing a dispersion of wavelengths of the at least one light pulse or of the light beam (1, 12), characterized in that the plurality of chirped mirrors (3-6, 18, 19) are arranged relative to one another in the beam path of the light beam (1, 12) and at least one of the chirped mirrors (3-6, 18, 19) is continuously movable relative to the light beam (1, 12) in such a way that, by moving the at least one chirped mirror (3-6, 18, 19), the angle of incidence of the incident light beam (1, 12) onto the respective chirped mirror (3-6, 18, 19) can be adjusted to change the dispersion and that a position and a beam direction of the emerging light beam (1, 12) - after passing through the arrangement of the chirped mirrors (3-6, 18, 19) - is not changed by moving the at least one chirped mirror (3-6, 18, 19).
A local login processing method of an image forming apparatus, the local login processing method comprising: generating session information according to a remote login request upon receiving the remote login request from a mobile terminal; transmitting the session information to the mobile terminal; receiving, from the mobile terminal, a local login request comprising local login information generated by using at least some of the session information; and approving the local login request by comparing the session information and the local login information, wherein the local login information comprises a session identification, ID, included in the session information or a personal identification number, PIN, code generated based on the session information, and wherein, when the local login information comprises the PIN code, the approving of the local login request based on the session information comprises: generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other. generating session information according to a remote login request upon receiving the remote login request from a mobile terminal; transmitting the session information to the mobile terminal; receiving, from the mobile terminal, a local login request comprising local login information generated by using at least some of the session information; and approving the local login request by comparing the session information and the local login information, wherein the local login information comprises a session identification, ID, included in the session information or a personal identification number, PIN, code generated based on the session information, and wherein, when the local login information comprises the PIN code, the approving of the local login request based on the session information comprises: generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other. generating a PIN code based on the session information; and approving the local login request when the generated PIN code and the PIN code comprised in the local login information match each other.
A method of assaying a sample for presence of nucleic acids from cells of a cancer type in a subject, the method comprising capturing converted cell-free DNA (cfDNA) fragments from the sample or amplification products thereof with a composition comprising a plurality of different bait oligonucleotides and sequencing the captured converted cfDNA fragments or amplification products thereof to produce sequencing reads, wherein: (a) each bait oligonucleotide in the plurality of different bait oligonucleotides is at least 45 nucleotides in length; (b) the plurality of different bait oligonucleotides are designed to collectively hybridize to converted cfDNA from at least 200 target genomic regions; (c) the at least 200 target genomic regions are differentially methylated in cfDNA of reference subjects with at least one cancer type relative to a different cancer type or relative to non-cancer; (d) the at least 200 target genomic regions comprise, for all possible pairs of cancer types selected from a set comprising at least 10 cancer types, at least one target genomic region that is identified as differentially methylated between the pair of cancer types in the cfDNA of the reference subjects; (e) detection by a classifier of an amount of sequences of cfDNA fragments from a plurality of the at least 200 target genomic regions in the sample that are hypermethylated or hypomethylated above a threshold amount identifies the cancer type in the subject; and (f) the classifier is a trained classifier that is trained using the converted cfDNA from the reference subjects; and (g) converted cfDNA comprises cfDNA treated to deaminate unmethylated cytosines. (a) each bait oligonucleotide in the plurality of different bait oligonucleotides is at least 45 nucleotides in length; (b) the plurality of different bait oligonucleotides are designed to collectively hybridize to converted cfDNA from at least 200 target genomic regions; (c) the at least 200 target genomic regions are differentially methylated in cfDNA of reference subjects with at least one cancer type relative to a different cancer type or relative to non-cancer; (d) the at least 200 target genomic regions comprise, for all possible pairs of cancer types selected from a set comprising at least 10 cancer types, at least one target genomic region that is identified as differentially methylated between the pair of cancer types in the cfDNA of the reference subjects; (e) detection by a classifier of an amount of sequences of cfDNA fragments from a plurality of the at least 200 target genomic regions in the sample that are hypermethylated or hypomethylated above a threshold amount identifies the cancer type in the subject; and (f) the classifier is a trained classifier that is trained using the converted cfDNA from the reference subjects; and (g) converted cfDNA comprises cfDNA treated to deaminate unmethylated cytosines.
An assembling device for assembling an angular ball bearing including an inner ring, an outer ring and multiple balls, the assembling device being configured to mount multiple balls into a clearance between the inner and outer rings (10, 20) and configured to collect the multiple balls from the clearance, and comprising: a rotation mechanism configured to relatively rotate the inner and outer rings; a displacement mechanism configured to relatively displace the inner and outer rings (10, 20) along a plane orthogonal to the axial direction; a ball support member configured to support the multiple balls by its axial one end face, and being capable of swinging in the peripheral direction and displacing in the axial direction; and a ball displacement preventive member being displaced in such portion of the clearance as is not occupied by the multiple balls when the multiple balls are mounted in the clearance and configured to prevent displacement of the multiple balls in the peripheral direction. a rotation mechanism configured to relatively rotate the inner and outer rings; a displacement mechanism configured to relatively displace the inner and outer rings (10, 20) along a plane orthogonal to the axial direction; a ball support member configured to support the multiple balls by its axial one end face, and being capable of swinging in the peripheral direction and displacing in the axial direction; and a ball displacement preventive member being displaced in such portion of the clearance as is not occupied by the multiple balls when the multiple balls are mounted in the clearance and configured to prevent displacement of the multiple balls in the peripheral direction.
A compound selected from the group consisting of: 1.394 1.426 1.396 1.460 1.421 1.445 1.428 1.451 1.438 1.452 1.441 1.499 1.536 1.538 1.334 1.371 1.399 1.406 1.412 1.435 1.495 1.390 1.395 and 1.403 or a pharmaceutically acceptable salt, hydrate or rotomer thereof.
A hot-melt adhesive comprising an olefin copolymer, a tackifying resin and a wax, wherein the olefin copolymer comprises a metallocene-type ethylene/α-olefin copolymer (Al) having a melting point of 100 to 140°C and wherein the metallocene-type ethylene/α-olefin copolymer (Al) has an ethylene content of 7.0 to 10.0% by weight.
A satellite having at least one transmitting and/or receiving unit, which has an antenna arrangement for transmitting and/or receiving ADS-B radio signals, characterized in that the antenna arrangement has a plurality of directional antennas (6a to 6c) which in each case form a transmitting and/or receiving sector (7a to 7c, 22a to 22e) within a defined transmitting and/or receiving area, and are designed to transmit and/or receive ADS-B radio signals in their respective transmitting and/or receiving sector (7a to 7c, 22a to 22e).
Device for guiding and directing a metal sheet in a bending machine to form continuously a conical structure, in particular a frustoconical structure, said device comprising: - resting and contrasting means (4; 104; 204) extending along a closed path, and suitable for restingly receiving a longitudinal edge of said metal sheet and contrasting a movement of said edge in a direction that is transverse to a preset advancement trajectory of said metal sheet, - a supporting body for said resting and contrasting means (4; 104; 204), having at least one oblong lateral portion that is suitable for facing said edge and configured for conforming said resting and contrasting means (4; 104; 204) to the longitudinal profile of said edge so as to obtain an extended zone of contact with said edge and impress contrasting pressure distributed along said edge, - said resting and contrasting means (4; 104; 204) being movable around said supporting body along said closed path to accompany said edge of the metal sheet by a distributed contact devoid of relative sliding and rolling, so as to impose on said metal sheet the movement along said preset advancement trajectory to and through said bending machine, said device being CHARACTERIZED IN THAT said supporting body consists of several reciprocally connected parts (12, 13, 14, 15, 16; 17, 18, 19; 62, 63, 64; 71), the reciprocal position of said parts being variable by adjusting means (20, 21, 22; 65; 72) so as to modify the geometrical shape of said supporting body to adapt the shape of the closed path of said resting and contrasting means (4; 104; 204) to the longitudinal geometric profile of said edge of the metal sheet. - resting and contrasting means (4; 104; 204) extending along a closed path, and suitable for restingly receiving a longitudinal edge of said metal sheet and contrasting a movement of said edge in a direction that is transverse to a preset advancement trajectory of said metal sheet, - a supporting body for said resting and contrasting means (4; 104; 204), having at least one oblong lateral portion that is suitable for facing said edge and configured for conforming said resting and contrasting means (4; 104; 204) to the longitudinal profile of said edge so as to obtain an extended zone of contact with said edge and impress contrasting pressure distributed along said edge, - said resting and contrasting means (4; 104; 204) being movable around said supporting body along said closed path to accompany said edge of the metal sheet by a distributed contact devoid of relative sliding and rolling, so as to impose on said metal sheet the movement along said preset advancement trajectory to and through said bending machine, said device being CHARACTERIZED IN THAT said supporting body consists of several reciprocally connected parts (12, 13, 14, 15, 16; 17, 18, 19; 62, 63, 64; 71), the reciprocal position of said parts being variable by adjusting means (20, 21, 22; 65; 72) so as to modify the geometrical shape of said supporting body to adapt the shape of the closed path of said resting and contrasting means (4; 104; 204) to the longitudinal geometric profile of said edge of the metal sheet.
A blood purification device comprising a porous molded body that contains an inorganic ion adsorbent, wherein the relationship B = -0.02A + 2. 175±0.185 (74 ≤ A ≤ 94) is satisfied, where A is the water content expressed as percentage and B is the bulk density of the porous molded body, while the number of microparticles with sizes of 10 μm or greater is no more than 25 and the number of microparticles with sizes of 25 μm or greater is no more than 3, in 1 mL of the physiological saline for injection at 3 months and 6 months after the physiological saline for injection has been encapsulated in the blood purification device; wherein the porous molded body is in the form of spherical particles with a mean particle size of 100 to 2500 μm and is composed of a porous molded body-forming polymer, a hydrophilic polymer and an inorganic ion adsorbent, the porous molded body-forming polymer is an aromatic polysulfone, the hydrophilic polymer is a biocompatible polymer, which is a polyvinylpyrrolidone -based polymer, and the inorganic ion adsorbent contains at least one metal oxide represented by the following formula: MN x O n ·mH 2 O {where x is 0 to 3, n is 1 to 4, m is 0 to 6, and M and N are metal elements selected from the group consisting of Ti, Zr, Sn, Sc, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Al, Si, Cr, Co, Ga, Fe, Mn, Ni, V, Ge, Nb and Ta, and are different from each other}, characterised in that the porous molded body is coated with a biocompatible polymer selected from the group consisting of polyvinylpyrrolidone -based polymers and polymethoxyethyl acrylate (PMEA). the porous molded body is in the form of spherical particles with a mean particle size of 100 to 2500 μm and is composed of a porous molded body-forming polymer, a hydrophilic polymer and an inorganic ion adsorbent, the porous molded body-forming polymer is an aromatic polysulfone, the hydrophilic polymer is a biocompatible polymer, which is a polyvinylpyrrolidone -based polymer, and the inorganic ion adsorbent contains at least one metal oxide represented by the following formula: MN x O n ·mH 2 O {where x is 0 to 3, n is 1 to 4, m is 0 to 6, and M and N are metal elements selected from the group consisting of Ti, Zr, Sn, Sc, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Al, Si, Cr, Co, Ga, Fe, Mn, Ni, V, Ge, Nb and Ta, and are different from each other}, characterised in that the porous molded body is coated with a biocompatible polymer selected from the group consisting of polyvinylpyrrolidone -based polymers and polymethoxyethyl acrylate (PMEA).
Portable data carrier having a substantially flat shape, comprising: a metal layer in between a first ferrite layer and a second ferrite layer; wherein a first antenna layer is arranged adjacent to the first ferrite layer on a side of the first ferrite layer opposite to the side of the metal layer; wherein a second antenna layer is arranged adjacent to the second ferrite layer on a side of the second ferrite layer opposite to the side of the metal layer; wherein the first antenna layer comprises a first antenna adapted to carry out a contactless communication; wherein the second antenna layer comprises a second antenna adapted to carry out a contactless communication; wherein at least one processing unit, or a secure element comprising the processing unit, is provided, wherein the at least one processing unit is in communication with the first antenna and/or the second antenna. a metal layer in between a first ferrite layer and a second ferrite layer; wherein a first antenna layer is arranged adjacent to the first ferrite layer on a side of the first ferrite layer opposite to the side of the metal layer; wherein a second antenna layer is arranged adjacent to the second ferrite layer on a side of the second ferrite layer opposite to the side of the metal layer; wherein the first antenna layer comprises a first antenna adapted to carry out a contactless communication; wherein the second antenna layer comprises a second antenna adapted to carry out a contactless communication; wherein at least one processing unit, or a secure element comprising the processing unit, is provided, wherein the at least one processing unit is in communication with the first antenna and/or the second antenna.
A method for video reconstruction following application layer forward error correction, AL-FEC, decoding, the method comprising: receiving a plurality of symbol blocks, wherein at least one received symbol block comprises a partially recovered symbol block, each symbol block comprises AL-FEC encoding of a corresponding source symbol block having a plurality of source symbols; determining when an AL-FEC decoder is unable to successfully decode at least one of the source symbol blocks from the plurality of received symbol blocks; for each unsuccessful symbol block decoding, determining when the plurality of AL-FEC encoded source symbols of the corresponding partially recovered symbol block was generated by a systematic code; and a video decompression engine generating a reconstructed version of the original video signal from the partially recovered received symbol blocks characterised in that the plurality of symbol blocks is created by a video source, prior to said receiving said plurality of symbol blocks at a wireless device, said creating comprising setting a symbol block size variable, SBS, to zero; comparing said SBS to a minimum size for a source symbol block, said minimum size corresponding to the product of the minimum number of symbols and the size of each source symbol; increasing the SBS, if the SBS is less than the minimum size, by adding an index indicating a group of pictures, GOP, for video encoding, and incrementing said index; and repeating said comparing and adding until the SBS reaches the minimum size. receiving a plurality of symbol blocks, wherein at least one received symbol block comprises a partially recovered symbol block, each symbol block comprises AL-FEC encoding of a corresponding source symbol block having a plurality of source symbols; determining when an AL-FEC decoder is unable to successfully decode at least one of the source symbol blocks from the plurality of received symbol blocks; for each unsuccessful symbol block decoding, determining when the plurality of AL-FEC encoded source symbols of the corresponding partially recovered symbol block was generated by a systematic code; and a video decompression engine generating a reconstructed version of the original video signal from the partially recovered received symbol blocks characterised in that the plurality of symbol blocks is created by a video source, prior to said receiving said plurality of symbol blocks at a wireless device, said creating comprising setting a symbol block size variable, SBS, to zero; comparing said SBS to a minimum size for a source symbol block, said minimum size corresponding to the product of the minimum number of symbols and the size of each source symbol; increasing the SBS, if the SBS is less than the minimum size, by adding an index indicating a group of pictures, GOP, for video encoding, and incrementing said index; and repeating said comparing and adding until the SBS reaches the minimum size.
A spectrum resource determining method, comprising: obtaining sharing information, wherein the sharing information indicates that N first cells and one second cell share a first frequency band, a coverage area of each first cell among the N first cells overlaps a coverage area of the second cell, and N is an integer greater than 1; scheduling data of a terminal on the n th second spectrum resource when the terminal is located in a coverage area of the n th first cell and interference of the terminal to each of the other first cells among the N first cells is less than or equal to a first threshold, wherein a serving cell of the terminal is the second cell, and determining a spectrum resource of each first cell among the N first cells in the first frequency band and a first spectrum resource of the second cell, wherein the first spectrum resource is located in the first frequency band, and the first spectrum resource does not overlap the spectrum resource of each first cell among the N first cells in the first frequency band; or determining a spectrum resource of an n th first cell among the N first cells in the first frequency band and an n th second spectrum resource of the second cell, wherein the n th second spectrum resource is located in the first frequency band, the n th second spectrum resource does not overlap the spectrum resource of the n th first cell in the first frequency band in an overlapping coverage area of the second cell and the n th first cell, and a value of n is an integer ranging from 1 to N. obtaining sharing information, wherein the sharing information indicates that N first cells and one second cell share a first frequency band, a coverage area of each first cell among the N first cells overlaps a coverage area of the second cell, and N is an integer greater than 1; scheduling data of a terminal on the n th second spectrum resource when the terminal is located in a coverage area of the n th first cell and interference of the terminal to each of the other first cells among the N first cells is less than or equal to a first threshold, wherein a serving cell of the terminal is the second cell, and determining a spectrum resource of each first cell among the N first cells in the first frequency band and a first spectrum resource of the second cell, wherein the first spectrum resource is located in the first frequency band, and the first spectrum resource does not overlap the spectrum resource of each first cell among the N first cells in the first frequency band; or determining a spectrum resource of an n th first cell among the N first cells in the first frequency band and an n th second spectrum resource of the second cell, wherein the n th second spectrum resource is located in the first frequency band, the n th second spectrum resource does not overlap the spectrum resource of the n th first cell in the first frequency band in an overlapping coverage area of the second cell and the n th first cell, and a value of n is an integer ranging from 1 to N.
A method for detecting a target, comprising: directing a laser beam towards an area; detecting the laser beam reflected from the area; determining whether the received laser beam comprises an optically augmented reflection indicating retro-reflection from a target, characterised in that the determining comprises: generating a histogram representing a plurality of grayscale values of the area, the histogram comprising a frequency count for each grayscale value; determining whether a frequency count of the histogram is greater than a threshold; and determining that there is the optically augmented reflection if the frequency count of the histogram is greater than the threshold; and detecting the target if the received laser beam comprises the optically augmented reflection. directing a laser beam towards an area; detecting the laser beam reflected from the area; determining whether the received laser beam comprises an optically augmented reflection indicating retro-reflection from a target, characterised in that the determining comprises: generating a histogram representing a plurality of grayscale values of the area, the histogram comprising a frequency count for each grayscale value; determining whether a frequency count of the histogram is greater than a threshold; and determining that there is the optically augmented reflection if the frequency count of the histogram is greater than the threshold; and generating a histogram representing a plurality of grayscale values of the area, the histogram comprising a frequency count for each grayscale value; determining whether a frequency count of the histogram is greater than a threshold; and determining that there is the optically augmented reflection if the frequency count of the histogram is greater than the threshold; and detecting the target if the received laser beam comprises the optically augmented reflection.