mhurhangee/ep-ind-claims huggingface dataset:
Electronic locking system comprising an electronic key and an electronic lock, which can be brought into interaction with one another by a contact set and a mating contact set, wherein the electronic key has a processor and a memory and the processor interacts with the memory and writes an authorization code into the memory and wherein the electronic lock has a processor which, when the electronic key interacts with the electronic lock, interacts with the memory in the electronic key via the contact set and the mating contact set in order to read out the authorization code, characterized in that the authorization code is an externally generated authorization code and the processor of the electronic key interacts with an input unit by means of which the externally generated authorization code can be transmitted to the processor, and in that only a single opening is permitted with the externally generated authorization code.
An aircraft wing assembly comprising: a fuel tank, a pair of covers (1, 2; 29, 30); a spar web (12; 32) extending between the covers in a thickness direction of the aircraft wing assembly, the spar web having a length which extends in a span-wise direction; a hole through the spar web; and a container (6; 36) which extends from the spar web into the fuel tank and is capable of housing at least part of a track (11; 31) for moving a high-lift device, wherein the container comprises first and second side walls which are spaced apart from each other across the spar web in the thickness direction of the aircraft wing assembly, and inboard and outboard walls (18, 19; 37, 38) which are spaced apart from each other along the spar web in the span-wise direction, characterised by: a container flange which extends from the spar web into the fuel tank and surrounds the hole in the spar web; and a container body which is joined to the container flange, and in that the spar web and the container flange are integrally formed as a single piece.
A kit for non-invasively detecting fetal deafness pathogenic gene mutations, comprising: reagents for extracting plasma DNAs, barcode linker for labeling the extracted plasma DNAs through the start and terminal positions of the extracted plasma DNAs and 6 different bases on 3' end of the barcode linker, a DNA cyclase, primers and reagents for amplifying target DNAs, and primers and reagents for pre-amplifying the pre-determined loci of deafness pathogenic genes, wherein the primers for pre-amplifying the pre-determined loci of deafness pathogenic genes are pairs of primers that are backward extended and designed to simultaneously testing a plurality of mutation loci comprising 22 loci of GJB2 gene, GJB3 gene, and SLC26A4 gene; the pairs of primers being: GJB2-F1 (SEQ ID NO: 2): CACGCTGCAGACGATCC, GJB2-R1 (SEQ ID NO: 3): CCCCAATCCATCTTCTACTCT; GJB2-F2 (SEQ ID NO: 4): TCCCACATCCGGCTATG, GJB2-R2 (SEQ ID NO: 5): GATGGGGAAGTAGTGATCGTAG; GJB3-F (SEQ ID NO: 7): CGTGGACTGCTACATTGCC, GJB3-R (SEQ ID NO: 8): ATGTTGGGGCAGGGG; PDS3-F (SEQ ID NO: 10): CGTCATTTCGGGAGT, PDS3-R (SEQ ID NO: 11): CTAAGCAGCCATTCC; PDS5-F (SEQ ID NO: 13): CCCTGACTCTGCTGG, PDS5-R (SEQ ID NO: 14): CACTGGCAATCAGGA; PDS7-F2 (SEQ ID NO: 16): TGGCAGTAGCAATTATCGTC, PDS7-R2 (SEQ ID NO: 17): TTTCATATGGAGCCAACCTG; PDS10-F (SEQ ID NO: 19): CCACTGCTCTTTCCCGC, PDS10-R (SEQ ID NO: 20): CAAGAGAAGAATCCTGAGAAGATG; PDS17-F (SEQ ID NO: 22): TTCCTGGACGTTGTTGGAG, PDS17-R (SEQ ID NO: 23): GATATAGCTCCACAGTCAAGCAC; and PDS19-F (SEQ ID NO: 25): TCTTGAGATTTCACTTGGTT, PDS19-R (SEQ ID NO: 26): GTTCCATTTTAGAAACGGTA. GJB2-F1 (SEQ ID NO: 2): CACGCTGCAGACGATCC, GJB2-R1 (SEQ ID NO: 3): CCCCAATCCATCTTCTACTCT; GJB2-F2 (SEQ ID NO: 4): TCCCACATCCGGCTATG, GJB2-R2 (SEQ ID NO: 5): GATGGGGAAGTAGTGATCGTAG; GJB3-F (SEQ ID NO: 7): CGTGGACTGCTACATTGCC, GJB3-R (SEQ ID NO: 8): ATGTTGGGGCAGGGG; PDS3-F (SEQ ID NO: 10): CGTCATTTCGGGAGT, PDS3-R (SEQ ID NO: 11): CTAAGCAGCCATTCC; PDS5-F (SEQ ID NO: 13): CCCTGACTCTGCTGG, PDS5-R (SEQ ID NO: 14): CACTGGCAATCAGGA; PDS7-F2 (SEQ ID NO: 16): TGGCAGTAGCAATTATCGTC, PDS7-R2 (SEQ ID NO: 17): TTTCATATGGAGCCAACCTG; PDS10-F (SEQ ID NO: 19): CCACTGCTCTTTCCCGC, PDS10-R (SEQ ID NO: 20): CAAGAGAAGAATCCTGAGAAGATG; PDS17-F (SEQ ID NO: 22): TTCCTGGACGTTGTTGGAG, PDS17-R (SEQ ID NO: 23): GATATAGCTCCACAGTCAAGCAC; and PDS19-F (SEQ ID NO: 25): TCTTGAGATTTCACTTGGTT, PDS19-R (SEQ ID NO: 26): GTTCCATTTTAGAAACGGTA.
A self-powered type transportation refrigeration unit comprising: a sub-engine which has an engine body and an intake pipe connected to the engine body to supply air to the engine body for driving a compressor; an outdoor heat exchanger which condenses gas compressed by the compressor; and a casing which accommodates the sub-engine and the outdoor heat exchanger, wherein the casing is provided with a partition wall which partitions an engine room in which the engine body is set and a heat exchange room in which the outdoor heat exchanger is set, characterized in that the intake pipe has an intake port which is open to the heat exchange room. a sub-engine which has an engine body and an intake pipe connected to the engine body to supply air to the engine body for driving a compressor; an outdoor heat exchanger which condenses gas compressed by the compressor; and a casing which accommodates the sub-engine and the outdoor heat exchanger, wherein the casing is provided with a partition wall which partitions an engine room in which the engine body is set and a heat exchange room in which the outdoor heat exchanger is set, characterized in that the intake pipe has an intake port which is open to the heat exchange room.
A method for manufacturing a yoghurt comprising a content of protein in the range from 5.6 % to 20 % (w/w), a content of native whey proteins in the range from 4 to 70 mg/mL, and a weight ratio of whey protein to casein in a range from 22:78 to 50:50 (w/w), comprising the steps of: a) providing raw milk; b) separating the raw milk into a cream fraction and a skim milk fraction; c) subjecting the skim milk fraction to microfiltration adapted to separate casein from whey protein and thereby obtaining a casein-rich fraction and a fraction of native whey protein; d) providing a native whey protein concentrate by subjecting the fraction of native whey protein to ultrafiltration adapted to separate native whey protein from water; e) mixing the casein-rich fraction and the native whey protein concentrate and thereby obtaining a mixture of casein and native whey protein wherein the whey protein to casein ratio is increased compared to the ratio of whey protein to casein in the raw milk; f) subjecting the mixture of casein and native whey protein to heat treatment and thereby obtaining a heat treated mixture of casein and whey protein; g) adding a starter culture to the heat treated mixture of casein and whey protein to provide a fermented mixture; and h) cooling the fermented mixture; characterized in that - the mixture of casein and native whey protein obtained in step e) has a weight ratio of whey protein to casein in a range from 22:78 to 50:50; and - the heat treatment of step f) is carried out by heating the mixture of casein and native whey protein at a temperature and for a time period sufficient to obtain denaturation of 30 to 70 % of the native whey protein of the mixture. a) providing raw milk; b) separating the raw milk into a cream fraction and a skim milk fraction; c) subjecting the skim milk fraction to microfiltration adapted to separate casein from whey protein and thereby obtaining a casein-rich fraction and a fraction of native whey protein; d) providing a native whey protein concentrate by subjecting the fraction of native whey protein to ultrafiltration adapted to separate native whey protein from water; e) mixing the casein-rich fraction and the native whey protein concentrate and thereby obtaining a mixture of casein and native whey protein wherein the whey protein to casein ratio is increased compared to the ratio of whey protein to casein in the raw milk; f) subjecting the mixture of casein and native whey protein to heat treatment and thereby obtaining a heat treated mixture of casein and whey protein; g) adding a starter culture to the heat treated mixture of casein and whey protein to provide a fermented mixture; and h) cooling the fermented mixture; - the mixture of casein and native whey protein obtained in step e) has a weight ratio of whey protein to casein in a range from 22:78 to 50:50; and - the heat treatment of step f) is carried out by heating the mixture of casein and native whey protein at a temperature and for a time period sufficient to obtain denaturation of 30 to 70 % of the native whey protein of the mixture.
A method of creating a mutant strain of yeast that will grow on at least one pentose sugar as a sole carbon source, the method comprising the steps of: providing a strain of yeast competent in at least one of the genes selected from the group consisting of Grr1 and Reg1; deleting the activity of both Grr1 and Reg1 to create a mutant strain; and testing the strain to determine if it will grow on a pentose sugar in the presence of at least about 0.03 wt. % 2-deoxy-glucose, wherein the strain of yeast used is Saccharomyces cerevisiae. providing a strain of yeast competent in at least one of the genes selected from the group consisting of Grr1 and Reg1; deleting the activity of both Grr1 and Reg1 to create a mutant strain; and testing the strain to determine if it will grow on a pentose sugar in the presence of at least about 0.03 wt. % 2-deoxy-glucose, wherein the strain of yeast used is Saccharomyces cerevisiae.
Process for forming a foam containing less than 5 % water by weight and containing more than 95 % by weight of total lipids of triglycerides all of whose fatty acids have a carbon chain length less than 22, the process comprising the steps of - providing a composition comprising triglycerides and having a lipid content greater than 20 wt.%; - controlling the temperature of the composition such that the composition comprises triglyceride crystals, has a solid lipid content between 0.1 and 80 % and forms a gel; - and aerating the gel to form a foam wherein the aeration step comprises mechanical agitation; and wherein solid particles having a particle size of less than 500 μm are added to the composition comprising triglycerides. - providing a composition comprising triglycerides and having a lipid content greater than 20 wt.%; - controlling the temperature of the composition such that the composition comprises triglyceride crystals, has a solid lipid content between 0.1 and 80 % and forms a gel; - and aerating the gel to form a foam wherein the aeration step comprises mechanical agitation;
An interlayer film for a laminated glass, which comprises a polyvinyl acetal resin, a plasticizer, a dispersant, and titanium oxide particles, the titanium oxide particles being dispersed so as to have an average long diameter of 0.4 to 2 μm and a dispersion density of 2.0 × 10 5 to 7.0 × 10 5 particles/cm 2, and the content of the titanium oxide particles being 0.05 to 0.5 parts by weight with respect to 100 parts by weight of the polyvinyl acetal resin.
A method of prognosing prostate cancer, lung cancer, bladder cancer or brain cancer, comprising: (a) determining in a fresh frozen tumor sample from a patient diagnosed of prostate cancer, lung cancer, bladder cancer or brain cancer, the expression of a panel of genes in said tumor sample wherein: (i) for prostate cancer the panel includes at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the panel includes all the cell-cycle genes from Panel C or F; (b) providing a test value by weighting the determined expression of each of a plurality of test genes selected from said panel of genes with a predefined coefficient, and combining the weighted expressions to provide said test value, wherein: (i) for prostate cancer the plurality of test genes includes the at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the plurality of test genes includes all the cell-cycle genes from Panel C or F; and (c) comparing said test value to a reference value, and correlating to an increased likelihood of poor prognosis if said test value is greater than said reference value. (a) determining in a fresh frozen tumor sample from a patient diagnosed of prostate cancer, lung cancer, bladder cancer or brain cancer, the expression of a panel of genes in said tumor sample wherein: (i) for prostate cancer the panel includes at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the panel includes all the cell-cycle genes from Panel C or F; (i) for prostate cancer the panel includes at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the panel includes all the cell-cycle genes from Panel C or F; (b) providing a test value by weighting the determined expression of each of a plurality of test genes selected from said panel of genes with a predefined coefficient, and combining the weighted expressions to provide said test value, wherein: (i) for prostate cancer the plurality of test genes includes the at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the plurality of test genes includes all the cell-cycle genes from Panel C or F; and (i) for prostate cancer the plurality of test genes includes the at least 4 cell-cycle genes selected from Panel C or F, and (ii) for lung cancer, bladder cancer and brain cancer the plurality of test genes includes all the cell-cycle genes from Panel C or F; and (c) comparing said test value to a reference value, and correlating to an increased likelihood of poor prognosis if said test value is greater than said reference value.
An orthopaedic surgical instrument for positioning an acetabular prosthetic component in a patient's surgically-prepared acetabulum, the instrument comprising: a base configured to engage the patient's pelvis, a first linkage coupled to the base, and a locking mechanism operable to lock the first linkage in position relative to the base, and a second linkage coupled to the first linkage, the second linkage having an alignment axis corresponding to a desired abduction angle (α) and a desired anteversion angle (β) of the acetabular axis of the acetabular prosthetic component, characterised in that the first linkage includes a gravity-based indicator. a base configured to engage the patient's pelvis, a first linkage coupled to the base, and a locking mechanism operable to lock the first linkage in position relative to the base, and a second linkage coupled to the first linkage, the second linkage having an alignment axis corresponding to a desired abduction angle (α) and a desired anteversion angle (β) of the acetabular axis of the acetabular prosthetic component,
A wall bracket for a hand shower, comprising - a wall rod, - at least one wall support for fixing the wall rod with a distance in front of an approximately perpendicular surface, - at least one holder attached and/or attachable to the wall rod for inserting of a hand shower, which hand shower includes a handle and a shower hose, wherein the holder for the hand shower is formed as a continuation of the wall rod, characterized in that - the holder is formed as a curved pipe, open towards the rear side and/or lateral side, with a cone holder for the hand shower handle at the end, wherein the interior of the pipe is for guiding the shower hose therein. - a wall rod, - at least one wall support for fixing the wall rod with a distance in front of an approximately perpendicular surface, - at least one holder attached and/or attachable to the wall rod for inserting of a hand shower, which hand shower includes a handle and a shower hose, wherein the holder for the hand shower is formed as a continuation of the wall rod, characterized in that - the holder is formed as a curved pipe, open towards the rear side and/or lateral side, with a cone holder for the hand shower handle at the end, wherein the interior of the pipe is for guiding the shower hose therein.
An excavation system comprising a support frame, a hydraulic circuit with a pump, and first and second excavation tools, one of said first and second excavation tools being a mechanical excavation tool having a hydraulic actuator and a mounting interface with at least one mechanical fastener member and at least one hydraulic coupling in fluid flow communication with said hydraulic actuator, the system being characterized in that the other one of said first and second excavation tools is a tool for excavation by electric pulses, comprising an electricity generator with a rotary shaft for generating electricity from rotation of the rotary shaft, a hydraulic motor coupled to said rotary shaft to drive rotation of the rotary shaft, and an electronic power module electrically connected to the electricity generator in order to be powered by the electricity generator so as to generate electric pulses of instantaneous power that is higher than an instantaneous power of the electricity generator, a plurality of electrodes (5a, 5p) including at least one electrode connected to said electronic power module, the electrodes being arranged on said front face, and a mounting interface with at least one mechanical fastener member and at least one hydraulic coupling in fluid flow communication with said hydraulic motor, and in that each of the mounting interfaces of the first and second excavation tools is suitable for releasably and alternatively mounting the corresponding excavation tool under the support frame of the excavation system, with the corresponding hydraulic coupling in fluid flow communication with said hydraulic circuit of the excavation assembly.
A device for processing perfusion images, comprising: a first input port configured to receive a first image sequence comprising a plurality of X-ray perfusion angiography images indicative of perfusion states relative to an organ deep tissue, a second input port configured to receive a second image sequence comprising a plurality of two-dimensional photoplethysmography images indicative of perfusion states relative to the organ surface tissue or near surface tissue, each of said plurality of photoplethysmography images comprising a plurality of image points associated with blood volume values at a corresponding plurality of distinct spatial locations on the organ surface, a processing unit configured to extract first and second changes in the perfusion states over time from the received first image sequence and the received second image sequence, respectively, and an output port, characterized in that the processing unit is configured to align the first and second changes in the perfusion states over time, or a quantity derived therefrom, by detecting a passage of a previously delivered contrast agent bolus by detecting a reduction of the image signal amplitude in the photoplethysmography image sequence, and in that the output port is configured to output a perfusion imaging signal for visualizing the aligned first and second changes in the perfusion states, or the quantity derived therefrom. a first input port configured to receive a first image sequence comprising a plurality of X-ray perfusion angiography images indicative of perfusion states relative to an organ deep tissue, a second input port configured to receive a second image sequence comprising a plurality of two-dimensional photoplethysmography images indicative of perfusion states relative to the organ surface tissue or near surface tissue, each of said plurality of photoplethysmography images comprising a plurality of image points associated with blood volume values at a corresponding plurality of distinct spatial locations on the organ surface, a processing unit configured to extract first and second changes in the perfusion states over time from the received first image sequence and the received second image sequence, respectively, and an output port, characterized in that the processing unit is configured to align the first and second changes in the perfusion states over time, or a quantity derived therefrom, by detecting a passage of a previously delivered contrast agent bolus by detecting a reduction of the image signal amplitude in the photoplethysmography image sequence, and in that the output port is configured to output a perfusion imaging signal for visualizing the aligned first and second changes in the perfusion states, or the quantity derived therefrom.
A mountable seat comprising at least two crossbar elements (2a, 2b) at different levels, one lower element and one upper element; and a band adapted so as to be arranged between said crossbars, wherein the band has two distinguishable functional ends and a central linking portion between said functional ends, characterized in that said band being long enough to be arranged below at least one of said crossbar elements and folded up around said crossbar element, one functional end determining a seat portion or a backrest portion, all of this such that the weight of a user, which rests on the seat, prevents the band from unfolding.
A dairy milking system including a tail positioning apparatus and a platform for supporting an animal, the platform being configured to move with respect to the tail positioning apparatus, the tail positioning apparatus including a hook which is configured to engage an animal's tail and to move the tail to one side by relative movement between an animal on the platform and the tail positioning apparatus, whereby the hook is attached to a lead-in bar which is configured such that the hook follows the contour of the posterior of the animal in use such that during relative movement between an animal on the platform and the apparatus, the animal and the bar rub against each other, guiding the hook towards the expected location of the tail.
A gas turbine with at least a compressor, a combustor (4, 15), a turbine (7, 12), and a fuel system, the fuel system comprises a gas separation system, for separating at least a first fuel fraction with high hydrocarbons, which has a higher concentration of high hydrocarbons than an incoming fuel gas, thereby providing a remaining second fuel fraction with a reduced concentration of high hydrocarbons, which has a lower concentration of high hydrocarbons than the incoming fuel gas, wherein a fuel line for feeding the first fuel fraction leads to the combustor (4, 15) to control the combustion behaviour by controlled addition of the first fuel fraction into the combustor (4,15), characterized in that a mixture of the incoming fuel gas and the second fuel fraction is fed into the combustor (4,15).
A method for adjusting a length of a timer performed by a base station, the method comprising: a.) detecting whether a quantity of accessing user equipments, UEs, in a cell exceeds a preset quantity threshold; b.) in case of yes in step a.), namely, when the quantity of accessing UEs exceeds the preset quantity threshold, increasing a length of a Radio Link Control, RLC, timer by a preset increment; c.) in case of no in step a.), detecting whether the length of the RLC timer is an initial length; c1.) in case of yes in step c.), ending the method; c2.) in case of no in step c.), setting the length of the RLC timer to the initial length of the RLC timer. a.) detecting whether a quantity of accessing user equipments, UEs, in a cell exceeds a preset quantity threshold; b.) in case of yes in step a.), namely, when the quantity of accessing UEs exceeds the preset quantity threshold, increasing a length of a Radio Link Control, RLC, timer by a preset increment; c.) in case of no in step a.), detecting whether the length of the RLC timer is an initial length; c1.) in case of yes in step c.), ending the method; c2.) in case of no in step c.), setting the length of the RLC timer to the initial length of the RLC timer. c1.) in case of yes in step c.), ending the method; c2.) in case of no in step c.), setting the length of the RLC timer to the initial length of the RLC timer.