mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for determining ploidy of a chromosomal segment in a sample of an individual, the method comprising: a. receiving allele frequency data for each SNP of a set of SNPs comprising 200 SNPs on a plurality of subsegments within the chromosomal segment, wherein within each subsegment 95% of pairwise SNP comparisons between any two SNPs within that chromosome/region have |D'| of > 95% , wherein the allele frequency data comprises the amount of each allele present in the sample at each SNP; b. generating phased allelic information for the set of SNPs by estimating the phase of the genotypic measurement data, taking into account an increased statistical correlation of SNPs within the same subsegment; c. generating individual likelihoods of allele frequencies for the set of SNPs for different ploidy states using the allele frequency data; d. generating joint likelihoods for the set of linked SNPs using the individual likelihoods and the phased allelic information; and e. selecting, based on the joint likelihoods, a best fit model indicative of chromosomal ploidy, thereby determining the ploidy of the chromosomal segment. a. receiving allele frequency data for each SNP of a set of SNPs comprising 200 SNPs on a plurality of subsegments within the chromosomal segment, wherein within each subsegment 95% of pairwise SNP comparisons between any two SNPs within that chromosome/region have |D'| of > 95% , wherein the allele frequency data comprises the amount of each allele present in the sample at each SNP; b. generating phased allelic information for the set of SNPs by estimating the phase of the genotypic measurement data, taking into account an increased statistical correlation of SNPs within the same subsegment; c. generating individual likelihoods of allele frequencies for the set of SNPs for different ploidy states using the allele frequency data; d. generating joint likelihoods for the set of linked SNPs using the individual likelihoods and the phased allelic information; and e. selecting, based on the joint likelihoods, a best fit model indicative of chromosomal ploidy, thereby determining the ploidy of the chromosomal segment.
A colloidal nanoparticle dispersion, wherein said nanoparticles are selected from the group consisting of silica, alumina or silica aluminate nanoparticles and wherein said nanoparticles are surface-functionalized with a combination of gamma-Mercaptopropyl trimethoxysilane and a hydrophobic organosilane or combination of hydrophobic organosilanes, wherein the hydrophobic organosilane is selected from the group consisting of methacryloxytrimethoxysilane, hexamethyldisiloxane, hexamethyldisilazane, phenyltrimethoxysilane, trimethylchlorosilane, butyldimethylchlorosilane, octyldimethylchlorosilane, vinyltrimethoxysilane, vinyltriethoxysilane, p-tolyltrimethoxysilane, n-butyltrimethoxysilane, propyltrimethoxysilane, ethyltrimethoxysilane, methyltrimethoxysilane, trimethylmethoxysilane, 11-(chlorodimethylsilyl)methyl tricosane, 13-(chlorodimethylsilylmethyl) heptacosane, cyclohexylmethyl dimethoxysilane, and octadecyltrimethoxysilane.
A liquid discharging apparatus comprising: nozzle rows (N), in which a plurality of nozzles capable of discharging liquid onto a medium are arranged, the nozzle rows being arranged in an intersection direction (B) intersecting with a nozzle-arrangement direction (A) in which the nozzles are arranged; a shielding portion configured to shield an area between the nozzle rows; and a recovering portion configured to recover mist (lm) which is attached to the shielding portion and is generated due to discharging of the liquid from the nozzles, wherein the shielding portion includes an inclined portion which is inclined when seen from the nozzle-arrangement direction (A); and wherein the recovering portion is provided on a downstream side of the inclined portion in a direction (C)in which the mist attached to the inclined portion flows, characterized in that the recovering portion is detachable. nozzle rows (N), in which a plurality of nozzles capable of discharging liquid onto a medium are arranged, the nozzle rows being arranged in an intersection direction (B) intersecting with a nozzle-arrangement direction (A) in which the nozzles are arranged; a shielding portion configured to shield an area between the nozzle rows; and a recovering portion configured to recover mist (lm) which is attached to the shielding portion and is generated due to discharging of the liquid from the nozzles, wherein the shielding portion includes an inclined portion which is inclined when seen from the nozzle-arrangement direction (A); and wherein the recovering portion is provided on a downstream side of the inclined portion in a direction (C)in which the mist attached to the inclined portion flows, characterized in that the recovering portion is detachable.
A spray dried powder comprising vancomycin hydrochloride, the spray dried powder comprising 100 part by weight vancomycin hydrochloride, 15-35 part by weight trehalose, and 0.005-0.05 part by weight polyoxyethylene sorbitan monooleat (tween 80).
A gripper module having two gripping elements , which are each mounted pivotably about a pivot axis (35; 65) and are coupled by means of a drivable gearing system , wherein the pivot axes are parallel to one another, - wherein the gearing system has a rotary drive element with a rotational axis that is stationary in relation to the pivot axes , and two translation elements , which are coupled to the drive element in a fixed gear ratio and are linearly movable in mutually opposing stroke directions (126, 128; 127, 129), - wherein the translation elements are movable parallel to pivot planes, lying normally to the pivot axes , of both gripping elements , - wherein in each case one translation element (111; 121) and in each case one gripping element (31; 61) is connected at least by means of a pivoting sliding joint , - wherein the gearing system has a rack and pinion gear , the drive element of which is a drive shaft with a pinion , and the translation elements (111; 121) of which are toothed racks (111; 121) that mesh with the pinion , - wherein the individual pivoting sliding joint is formed at least by a hollow prism of a gripping element (31; 61) and a solid prism (114; 114, 122), guided therein, of a toothed rack (111; 121), and - wherein the solid prism has a catch pin , which is oriented in the same direction as the teeth of the toothed rack (111; 121). - wherein the gearing system has a rotary drive element with a rotational axis that is stationary in relation to the pivot axes , and two translation elements , which are coupled to the drive element in a fixed gear ratio and are linearly movable in mutually opposing stroke directions (126, 128; 127, 129), - wherein the translation elements are movable parallel to pivot planes, lying normally to the pivot axes , of both gripping elements , - wherein in each case one translation element (111; 121) and in each case one gripping element (31; 61) is connected at least by means of a pivoting sliding joint , - wherein the gearing system has a rack and pinion gear , the drive element of which is a drive shaft with a pinion , and the translation elements (111; 121) of which are toothed racks (111; 121) that mesh with the pinion , - wherein the individual pivoting sliding joint is formed at least by a hollow prism of a gripping element (31; 61) and a solid prism (114; 114, 122), guided therein, of a toothed rack (111; 121), and - wherein the solid prism has a catch pin , which is oriented in the same direction as the teeth of the toothed rack (111; 121).
A convertible running bike capable of selectively converting from a non-motorized configuration to a motorized configuration, comprising: a front fork rotatably engaged with a front wheel ; a handle bar rotatably engaged with the front fork for steering the bike ; a frame including: a down tube portion connected to the front fork ; a rear fork rotatably engaged with a rear wheel ; a drivetrain receiving region for selectively receiving a drivetrain assembly ; a battery mount (27 or 51) for selectively receiving a battery ; and a seat connected to the frame . a front fork rotatably engaged with a front wheel ; a handle bar rotatably engaged with the front fork for steering the bike ; a frame including: a down tube portion connected to the front fork ; a rear fork rotatably engaged with a rear wheel ; a drivetrain receiving region for selectively receiving a drivetrain assembly ; a battery mount (27 or 51) for selectively receiving a battery ; and a seat connected to the frame . a down tube portion connected to the front fork ; a rear fork rotatably engaged with a rear wheel ; a drivetrain receiving region for selectively receiving a drivetrain assembly ; a battery mount (27 or 51) for selectively receiving a battery ; and a seat connected to the frame .
A method performed by a wireless transmitter, said method comprising: transmitting in a 60GHz frequency band an enhanced directional multi-gigabit, EDMG, physical layer convergence protocol data unit, PPDU; wherein the EDMG PPDU comprises a first header, a second header, and a payload; wherein the first header is a modified 802.11ad header carrying a plurality of bits, which carries at least one parameter for a directional multi-gigabit, DMG, PPDU; wherein a logical value of one or more reserved bits of the plurality of bits is set to 1 to indicate the presence of the second header in the EDMG PPDU and other bits in the plurality of bits except the one or more reserved bits are the same as in an 802.1 1ad header; wherein the logical value is used by a receiver to determine that the EDMG PPDU comprises the second header; wherein the second header carries at least one parameter for the EDMG PPDU, wherein the at least one parameter for the EDMG PPDU in the second header comprises a number of bonded channels, a MIMO type, a MIMO order, or a combination thereof; and wherein the first header and the second header are a physical layer packet header. transmitting in a 60GHz frequency band an enhanced directional multi-gigabit, EDMG, physical layer convergence protocol data unit, PPDU; wherein the EDMG PPDU comprises a first header, a second header, and a payload; wherein the first header is a modified 802.11ad header carrying a plurality of bits, which carries at least one parameter for a directional multi-gigabit, DMG, PPDU; wherein a logical value of one or more reserved bits of the plurality of bits is set to 1 to indicate the presence of the second header in the EDMG PPDU and other bits in the plurality of bits except the one or more reserved bits are the same as in an 802.1 1ad header; wherein the logical value is used by a receiver to determine that the EDMG PPDU comprises the second header; wherein the second header carries at least one parameter for the EDMG PPDU, wherein the at least one parameter for the EDMG PPDU in the second header comprises a number of bonded channels, a MIMO type, a MIMO order, or a combination thereof; and wherein the first header and the second header are a physical layer packet header.
A method for verifying a data set, stored in a device (D) to be tested, by a testing device (P) by means of a challenge-response method, in which: - the device (D) receives a challenge from a challenge provider (C) or calculates this itself in coordination with the challenge provider (C), - the device (D) forms a response reply using the challenge and sends the formed response reply and the challenge to the testing device (P), - the testing device (P) evaluates the sent response reply and thus verifies the data set by the testing device (P) calculating a hash value from the data set and comparing it with a hash value contained in the response reply, and verifies the challenge, wherein: - the challenge provider (C) is designed as an external challenge provider (C) different from the testing device (P), - the testing device (P) also receives the challenge from a challenge provider (C) or calculates this itself in coordination with the challenge provider (C), and - the testing device (P) verifies the challenge received from the device (D) by means of the challenge received from the challenge provider (C) or calculated in coordination with the challenge provider (C), wherein the data set has the function of an electronic ticket for means of transport of a transport system, and wherein the challenge provider (C) comprises one or more challenge provider instances which are provided in one or more or all means of transport, or/and at entrances of these means of transport, or/and in access areas to the transport system. - the device (D) receives a challenge from a challenge provider (C) or calculates this itself in coordination with the challenge provider (C), - the device (D) forms a response reply using the challenge and sends the formed response reply and the challenge to the testing device (P), - the testing device (P) evaluates the sent response reply and thus verifies the data set by the testing device (P) calculating a hash value from the data set and comparing it with a hash value contained in the response reply, and verifies the challenge, - the challenge provider (C) is designed as an external challenge provider (C) different from the testing device (P), - the testing device (P) also receives the challenge from a challenge provider (C) or calculates this itself in coordination with the challenge provider (C), and - the testing device (P) verifies the challenge received from the device (D) by means of the challenge received from the challenge provider (C) or calculated in coordination with the challenge provider (C),
A phototransistor comprising - a gate formed by a silicon substrate together with a dielectric SiO 2 interlayer that is arranged on the substrate , - a graphene layer , used as a carrier transport channel, and two electrodes (Vs, Vd) connected to the graphene layer in the lateral dimension (Vs, Vd), wherein said graphene layer and two electrodes (Vs, Vd) are deposited on said dielectric interlayer , characterized in that the phototransistor is based on a photo-gating effect and further comprises: - a layer of colloidal quantum dots , for absorbing light, arranged on top of the graphene layer , and - an additional gate, or top electrode, placed on top of the layer of colloidal quantum dots configured to control the electric field in the layer of colloidal quantum dots . - a gate formed by a silicon substrate together with a dielectric SiO 2 interlayer that is arranged on the substrate , - a graphene layer , used as a carrier transport channel, and two electrodes (Vs, Vd) connected to the graphene layer in the lateral dimension (Vs, Vd), wherein said graphene layer and two electrodes (Vs, Vd) are deposited on said dielectric interlayer , characterized in that - a layer of colloidal quantum dots , for absorbing light, arranged on top of the graphene layer , and - an additional gate, or top electrode, placed on top of the layer of colloidal quantum dots configured to control the electric field in the layer of colloidal quantum dots .
A mobile terminal, comprising: a housing , a cover plate , a display panel and a photographing module , wherein an accommodation space is formed between the housing and the cover plate , the display panel and the photographing module are provided in the accommodation space, the photographing module is provided on a side of the display panel away from the cover plate ; a first region of the display panel facing the photographing module is provided with a light shielding layer for shielding light at a predetermined wavelength, and the light at the predetermined wavelength is allowed to pass through a second region of the display panel facing the photographing module ; wherein the first region is provided with thin film transistor circuits, and a light shielding material for shielding the light at the predetermined wavelength is attached to surfaces of the thin film transistor circuits to form the light shielding layer ; characterized in that , the second region of the display panel , which is configured to allow the light at the predetermined wavelength to pass through, is formed by gaps between the thin film transistor circuits. wherein an accommodation space is formed between the housing and the cover plate , the display panel and the photographing module are provided in the accommodation space, the photographing module is provided on a side of the display panel away from the cover plate ; a first region of the display panel facing the photographing module is provided with a light shielding layer for shielding light at a predetermined wavelength, and the light at the predetermined wavelength is allowed to pass through a second region of the display panel facing the photographing module ; wherein the first region is provided with thin film transistor circuits, and a light shielding material for shielding the light at the predetermined wavelength is attached to surfaces of the thin film transistor circuits to form the light shielding layer ; characterized in that , the second region of the display panel , which is configured to allow the light at the predetermined wavelength to pass through, is formed by gaps between the thin film transistor circuits.
A connector , comprising: a first housing defining a guide slot ; a second housing configured to mate with the first housing , the second housing including a pin configured to engage the guide slot ; a mate assist slider moveable from an unmated position to a mated position , the mate assist slider slidably mounted to the first housing , the mate assist slider including a gear rack ; and a cam gear moveably mounted to the first housing , wherein the cam gear engages the gear rack such that the cam gear moves in response to a movement of the mate assist slider , wherein the cam gear defines a cam slot for receiving the pin , wherein the cam slot has an entrance having an inertial detent which extends above the guide slot and partially blocks a travel path of a cam portion of the pin , and wherein the inertial detent is configured to deflect and return to a home position as the pin is moved past the inertial detent . a first housing defining a guide slot ; a second housing configured to mate with the first housing , the second housing including a pin configured to engage the guide slot ; a mate assist slider moveable from an unmated position to a mated position , the mate assist slider slidably mounted to the first housing , the mate assist slider including a gear rack ; and a cam gear moveably mounted to the first housing , wherein the cam gear engages the gear rack such that the cam gear moves in response to a movement of the mate assist slider , wherein the cam gear defines a cam slot for receiving the pin , wherein the cam slot has an entrance having an inertial detent which extends above the guide slot and partially blocks a travel path of a cam portion of the pin , and wherein the inertial detent is configured to deflect and return to a home position as the pin is moved past the inertial detent .
Process for the preparation of a dental resin-modified glass ionomer composition comprising a polymerizable polyacidic polymer, wherein the process comprises the following steps: (a) providing a linear polyacidic acrylic polymer having repeating units of following formula (I) wherein A , which may be the same or different, independently is selected from a group of the following formula (Ia) to (If): k, l, m, n and o are independently integers of at least 0, k+l+m+n+o is at least 2; and at least one of k, l, n, and o is at least 1; wherein the polyacidic polymer has a weight average molecular weight of 10 to 300 kDa; (b) reacting the linear polyacidic acrylic polymer with one or more polymerizable compounds of the following formula (II) in a solvent: R-X (II) wherein X is selected from an amino group and an isocyanato group; and R is an organic group having one or more polymerizable double bond; for preparing a polymerizable linear polyacidic acrylic polymer having polymerizable pendant groups linked to the acrylic polymer backbone by amide groups; and (c) combining the polymerizable linear polyacidic acrylic polymer having polymerizable pendant groups linked to the acrylic polymer backbone by amide groups with a reactive dental glass capable of reacting with the polyacidic acrylic polymer in a cement reaction. (a) providing a linear polyacidic acrylic polymer having repeating units of following formula (I) wherein A , which may be the same or different, independently is selected from a group of the following formula (Ia) to (If): k, l, m, n and o are independently integers of at least 0, k+l+m+n+o is at least 2; and at least one of k, l, n, and o is at least 1; wherein the polyacidic polymer has a weight average molecular weight of 10 to 300 kDa; A , which may be the same or different, independently is selected from a group of the following formula (Ia) to (If): k, l, m, n and o are independently integers of at least 0, k+l+m+n+o is at least 2; and at least one of k, l, n, and o is at least 1; wherein the polyacidic polymer has a weight average molecular weight of 10 to 300 kDa; (b) reacting the linear polyacidic acrylic polymer with one or more polymerizable compounds of the following formula (II) in a solvent: R-X (II) wherein X is selected from an amino group and an isocyanato group; and R is an organic group having one or more polymerizable double bond; for preparing a polymerizable linear polyacidic acrylic polymer having polymerizable pendant groups linked to the acrylic polymer backbone by amide groups; and X is selected from an amino group and an isocyanato group; and R is an organic group having one or more polymerizable double bond; (c) combining the polymerizable linear polyacidic acrylic polymer having polymerizable pendant groups linked to the acrylic polymer backbone by amide groups with a reactive dental glass capable of reacting with the polyacidic acrylic polymer in a cement reaction.
A kit of parts comprising a dental mill blank comprising a porous zirconia material, a colouring solution for colouring the porous zirconia material, the porous zirconia material comprising Zr oxide calculated as ZrO2: from 80 to 97 wt.-%, Al oxide calculated as Al2O3: from 0 to 0.15 wt.-%, Y oxide calculated as Y2O3: from 1 to 10 wt.-%, Bi oxide calculated as Bi2O3: from 0.01 to 0.2 wt.-%, the porous zirconia material not comprising Fe calculated as Fe2O3 in an amount of more than 0.01 wt.-%, wt.-% with respect to the weight of the porous zirconia material, the colouring solution comprising solvent(s), colouring agent(s) comprising metal ions selected from Tb, Er, Pr, Mn or combinations thereof, the solution not comprising Fe ions in an amount of more than 0.01 wt.-%, the solution not comprising Bi ions in an amount of more than 0.01 wt.-%, wt.-% with respect to the weight of the colouring solution. a dental mill blank comprising a porous zirconia material, a colouring solution for colouring the porous zirconia material, Zr oxide calculated as ZrO2: from 80 to 97 wt.-%, Al oxide calculated as Al2O3: from 0 to 0.15 wt.-%, Y oxide calculated as Y2O3: from 1 to 10 wt.-%, Bi oxide calculated as Bi2O3: from 0.01 to 0.2 wt.-%, solvent(s), colouring agent(s) comprising metal ions selected from Tb, Er, Pr, Mn or combinations thereof,