mhurhangee/ep-ind-claims huggingface dataset:
A batch for producing a refractory product comprising the following components: 1.1 A base component of at least one refractory ceramic raw material; and 1.2 at least one synthetic raw material with the following features: 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of:(≥ 1 and ≤ length):(≥ 3) 1.1 A base component of at least one refractory ceramic raw material; and 1.2 at least one synthetic raw material with the following features: 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of:(≥ 1 and ≤ length):(≥ 3) 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of:(≥ 1 and ≤ length):(≥ 3)
A method for operating a processing entity configured to process a 3D image data stream for transmission over a wireless network to an extended-reality device, the method comprising: - receiving the 3D image data stream, the 3D image data stream comprising a first image data stream representing a structure of at least one real-world object and a second image data stream representing a texture of the at least one real-world object, - adding a corresponding transmission-time indication to each of the first image data stream and the second image data stream, resulting in an amended stream comprising an amended first stream and an amended second stream, - transmitting the amended stream over the wireless network to the extended reality device, - receiving, from the extended-reality device, a processing time indication for each of the amended first stream and the amended second stream, - initiating an adapting of at least one of the 3D image data stream and the amended stream based on the processing-time indication of the amended first stream and the amended second stream. - receiving the 3D image data stream, the 3D image data stream comprising a first image data stream representing a structure of at least one real-world object and a second image data stream representing a texture of the at least one real-world object, - adding a corresponding transmission-time indication to each of the first image data stream and the second image data stream, resulting in an amended stream comprising an amended first stream and an amended second stream, - transmitting the amended stream over the wireless network to the extended reality device, - receiving, from the extended-reality device, a processing time indication for each of the amended first stream and the amended second stream, - initiating an adapting of at least one of the 3D image data stream and the amended stream based on the processing-time indication of the amended first stream and the amended second stream.
Use of a ready mixed polyurethane-polyurea coating agent comprising a set of components for producing a coating agent which contains a binding agent being poor in solving agents, i.e. solving agent content of lower than 20 percent by volume, low viscous, i.e. viscosity smaller than 100 millipascal, as well as an anorganic filler with a high volume i.e. a volume concentration larger than 25 percent by volume, as an anti-rust agent by applying the anti-rust agent to a steel plate or a steel construction part, preferably by means of a role or spiral doctor blade, wherein the set of components comprises: A) A liquid reaction component A containing the polyhydroxyl compound of the polyurethane binder agent portion as well as an anorganic filler; B) A liquid reaction component B containing polyisocyanate for cross-linking the polyhydroxyl compound as well as for forming the polyurea binder agent portion; C) A liquid component C containing a compound of titanium of the formula III i. Ti w(OCOR4)y formula III wherein R3= C1-C8; R4 = C10-C18 hydrocarbon rest; w= 1 or 2; y= 2 or 3; w + y = 4; as well as a component separate from the component C, D) A volatile compound of the formula IV wherein R5, R6, R7= methyl or ethyl rest, and wherein, The chelate six-component-ring compound generated during mixing of the component out of the titanium component of the formula III and the volatile compound of the formula IV with excess isocyanat groups and at high air humidity of 80 to 85%, the reaction velocity between the excessive isocyanat groups and the air humidity is reduced while avoiding the formation of blisters and craters. A) A liquid reaction component A containing the polyhydroxyl compound of the polyurethane binder agent portion as well as an anorganic filler; B) A liquid reaction component B containing polyisocyanate for cross-linking the polyhydroxyl compound as well as for forming the polyurea binder agent portion; C) A liquid component C containing a compound of titanium of the formula III i. Ti w(OCOR4)y formula III wherein R3= C1-C8; R4 = C10-C18 hydrocarbon rest; w= 1 or 2; y= 2 or 3; w + y = 4; as well as a component separate from the component C, i. Ti w(OCOR4)y formula III D) A volatile compound of the formula IV
A highly permeable reverse osmosis membrane, produced by an interfacial polymerization process, comprising: contacting on a porous support membrane, a) a first solution containing a polyamine monomer and b) a second solution containing a polyfunctional acyl halide monomer, wherein a molecular additive compound is present in a) or b) or both during the polymerization reaction, and recovering the reverse osmosis membrane, characterized in that the molecular additive compound is a beta-diketonate including an alkaline earth metal selected from Mg, Ca and Sr. contacting on a porous support membrane, a) a first solution containing a polyamine monomer and b) a second solution containing a polyfunctional acyl halide monomer, wherein a molecular additive compound is present in a) or b) or both during the polymerization reaction, and a) a first solution containing a polyamine monomer and b) a second solution containing a polyfunctional acyl halide monomer, wherein a molecular additive compound is present in a) or b) or both during the polymerization reaction, and recovering the reverse osmosis membrane, characterized in that the molecular additive compound is a beta-diketonate including an alkaline earth metal selected from Mg, Ca and Sr.
A test and measurement instrument comprising: a test signal input for receiving a signal for testing; a sampler coupled to the test signal input and structured to generate a sampled test signal; and a noise reduction system including: an additional oscillator coupled to the sampler and structured to generate a sampled oscillating signal, a phase detector coupled to the sampled oscillating signal and structured to measure phase noise introduced by the sampler, and a phase corrector coupled to the phase detector and to the sampled test signal, structured to remove the measured amount of phase noise from the sampled test signal. a test signal input for receiving a signal for testing; a sampler coupled to the test signal input and structured to generate a sampled test signal; and a noise reduction system including: an additional oscillator coupled to the sampler and structured to generate a sampled oscillating signal, a phase detector coupled to the sampled oscillating signal and structured to measure phase noise introduced by the sampler, and a phase corrector coupled to the phase detector and to the sampled test signal, structured to remove the measured amount of phase noise from the sampled test signal. an additional oscillator coupled to the sampler and structured to generate a sampled oscillating signal, a phase detector coupled to the sampled oscillating signal and structured to measure phase noise introduced by the sampler, and a phase corrector coupled to the phase detector and to the sampled test signal, structured to remove the measured amount of phase noise from the sampled test signal.
A control device for electrically controlling a medical observation apparatus that captures an image of an observation target, the control device comprising: a voice recognition section that recognizes a voice inputted from outside; a recognized-information processing section that, based on a result of recognition by the voice recognition section, determines processing to be executed by the medical observation apparatus; a switch input reception section that receives an input of an operation signal based on an operation performed on a switch; and a control section that, upon detecting a first operation signal received by the switch input reception section causes the voice recognition section to start voice recognition processing and causes the medical observation apparatus to execute the processing determined by the recognized-information processing section, and upon detecting a second operation signal received by the switch input section, stops the processing to be executed by the medical observation apparatus; characterised in that the control section changes the driving speed of the medical observation apparatus according to an operation signal received by the switch input reception section during the processing determined by the recognized-information processing section. a voice recognition section that recognizes a voice inputted from outside; a recognized-information processing section that, based on a result of recognition by the voice recognition section, determines processing to be executed by the medical observation apparatus; a switch input reception section that receives an input of an operation signal based on an operation performed on a switch; and a control section that, upon detecting a first operation signal received by the switch input reception section causes the voice recognition section to start voice recognition processing and causes the medical observation apparatus to execute the processing determined by the recognized-information processing section, and upon detecting a second operation signal received by the switch input section, stops the processing to be executed by the medical observation apparatus; characterised in that the control section changes the driving speed of the medical observation apparatus according to an operation signal received by the switch input reception section during the processing determined by the recognized-information processing section.
A computer-implemented method, comprising: receiving haplotype data for a population of individuals, the haplotype data including a plurality of genetic markers shared among the individuals; dividing the haplotype data into segment windows based on genetic markers; for each individual in the population: based on the genetic markers, matching segments of the haplotype data that are identical between the individual and any other individual in the population, each matched segment having a first cM width exceeding a threshold cM width and being part of one or more of the segment windows; counting the matched segments in each segment window; estimating a weight associated with each segment window based on the count of matched segments in the associated segment window; calculating a weighted sum of per-window cM widths for each matched segment based on the first cM width of each matched segment and the weights associated with the segment windows of the matched segment; and estimating a degree of ancestral relatedness between two individuals based on the weighted sum of per-window cM widths of each matched segment between the two individuals. receiving haplotype data for a population of individuals, the haplotype data including a plurality of genetic markers shared among the individuals; dividing the haplotype data into segment windows based on genetic markers; for each individual in the population: based on the genetic markers, matching segments of the haplotype data that are identical between the individual and any other individual in the population, each matched segment having a first cM width exceeding a threshold cM width and being part of one or more of the segment windows; counting the matched segments in each segment window; estimating a weight associated with each segment window based on the count of matched segments in the associated segment window; calculating a weighted sum of per-window cM widths for each matched segment based on the first cM width of each matched segment and the weights associated with the segment windows of the matched segment; and based on the genetic markers, matching segments of the haplotype data that are identical between the individual and any other individual in the population, each matched segment having a first cM width exceeding a threshold cM width and being part of one or more of the segment windows; counting the matched segments in each segment window; estimating a weight associated with each segment window based on the count of matched segments in the associated segment window; calculating a weighted sum of per-window cM widths for each matched segment based on the first cM width of each matched segment and the weights associated with the segment windows of the matched segment; and estimating a degree of ancestral relatedness between two individuals based on the weighted sum of per-window cM widths of each matched segment between the two individuals.
A system for use in producing a nanotube mesh structure, said system comprising: a first nanotube collection apparatus comprising a first substrate configured to collect a plurality of nanotubes substantially aligned in a first orientation on an attachment surface thereof; a second nanotube collection apparatus comprising a second substrate configured to collect a plurality of nanotubes substantially aligned in a second orientation on an attachment surface thereof, wherein said first and second nanotube collection apparatuses (202, 204) are configured to combine the pluralities of nanotubes at an interface; a first energy source configured to direct energy towards the interface between the pluralities of nanotubes, wherein the energy is configured to join the pluralities of nanotubes to form the nanotube mesh structure. a first nanotube collection apparatus comprising a first substrate configured to collect a plurality of nanotubes substantially aligned in a first orientation on an attachment surface thereof; a second nanotube collection apparatus comprising a second substrate configured to collect a plurality of nanotubes substantially aligned in a second orientation on an attachment surface thereof, wherein said first and second nanotube collection apparatuses (202, 204) are configured to combine the pluralities of nanotubes at an interface; a first energy source configured to direct energy towards the interface between the pluralities of nanotubes, wherein the energy is configured to join the pluralities of nanotubes to form the nanotube mesh structure.
An article support assembly, comprising: (a) a stretch releasable adhesive strip having an adhesive portion and a non-adhesive pull tab portion; and (b) a unitary article support member arranged over at least a portion of the adhesive portion of the stretch releasable adhesive strip, the article support member including a back plate portion and an article support Portion; wherein the non-adhesive pull tab portion of the stretch releasable adhesive strip and the back plate portion of the article support member combine to form a symmetric curved profile, and wherein the back plate portion includes a first end opposite the pull tab portion and a second end adjacent the pull tab portion, and further wherein the back plate portion first end has a shape that generally corresponds to the shape of the pull tab portion. (a) a stretch releasable adhesive strip having an adhesive portion and a non-adhesive pull tab portion; and (b) a unitary article support member arranged over at least a portion of the adhesive portion of the stretch releasable adhesive strip, the article support member including a back plate portion and an article support Portion;
A method by a terminal which is capable of communicating with a master base station and a secondary base station in a wireless communication system, the method comprising: receiving, from the master base station, a first control message including a first cell-radio network temporary identifier, C-RNTI, for a master cell group, MCG, associated with the master base station, and a first RNTI for a power control of a physical uplink channel for the MCG; receiving, from the master base station, a second control message including a second C-RNTI for a secondary cell group, SCG, associated with the secondary base station and a second RNTI for a power control of a physical uplink channel for the SCG; monitoring a cell of the MCG based on the first C-RNTI for the MCG; monitoring a cell of the SCG based on the second C-RNTI for the SCG; monitoring a primary cell of the MCG based on the first RNTI for the power control of the physical uplink channel for the MCG; and monitoring a primary cell of the SCG based on the second RNTI for the power control of the physical uplink channel for the SCG. receiving, from the master base station, a first control message including a first cell-radio network temporary identifier, C-RNTI, for a master cell group, MCG, associated with the master base station, and a first RNTI for a power control of a physical uplink channel for the MCG; receiving, from the master base station, a second control message including a second C-RNTI for a secondary cell group, SCG, associated with the secondary base station and a second RNTI for a power control of a physical uplink channel for the SCG; monitoring a cell of the MCG based on the first C-RNTI for the MCG; monitoring a cell of the SCG based on the second C-RNTI for the SCG; monitoring a primary cell of the MCG based on the first RNTI for the power control of the physical uplink channel for the MCG; and monitoring a primary cell of the SCG based on the second RNTI for the power control of the physical uplink channel for the SCG.
A human intestinal isolate bacterium comprising a lysine pathway gene set that allows said bacterium to convert L-lysine into butyric acid and/or butyrate or a salt or ester thereof, and further comprising a glycated lysine uptake and degradation operon that allows said bacterium to convert glycated lysine into butyric acid and/or butyrate or a salt or ester thereof.
A method for interactive rendering in medical imaging, the method comprising: scanning a volume of a patient with a medical scanner, the scanning acquiring intensities representing the volume; rendering, during interaction by a user, a sequence of first two-dimensional images to a display from the intensities with direct volume rendering, wherein rendering the sequence comprises rendering the first two-dimensional images at 30 or more frames per second in real time with the interaction by the user; and rendering, upon the interaction ceasing for a period, a second two-dimensional image to a display from the intensities with path tracing rendering, wherein a machine-learnt classifier is used to determine the settings for one type of rendering based on settings for another type of rendering, wherein a look-up table based on a perception metric relates a different combination of settings for one type of rendering to a combination of settings for another type of rendering; wherein the relationship is to maintain or preserve cohesive perceptual details scanning a volume of a patient with a medical scanner, the scanning acquiring intensities representing the volume; rendering, during interaction by a user, a sequence of first two-dimensional images to a display from the intensities with direct volume rendering, wherein rendering the sequence comprises rendering the first two-dimensional images at 30 or more frames per second in real time with the interaction by the user; and rendering, upon the interaction ceasing for a period, a second two-dimensional image to a display from the intensities with path tracing rendering, wherein a machine-learnt classifier is used to determine the settings for one type of rendering based on settings for another type of rendering, wherein a look-up table based on a perception metric relates a different combination of settings for one type of rendering to a combination of settings for another type of rendering;
A printable recording media comprising: a. a base substrate with an image-side and a back-side; b. and an ink-receiving layer, applied to the image-side of the base substrate, comprising, at least, a reactive crosslinking agent, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders; and characterized in that the printable recording media comprises: c. a primary layer containing, at least, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders, that is applied on the image-side of the base substrate, below the ink-receiving layer; and wherein the reactive crosslinking agent is an azetidinium-containing polyamine polymer. a. a base substrate with an image-side and a back-side; b. and an ink-receiving layer, applied to the image-side of the base substrate, comprising, at least, a reactive crosslinking agent, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders; and characterized in that the printable recording media comprises: c. a primary layer containing, at least, inorganic pigment particles or a mixture of inorganic particles, and polymeric binders or a mixture of polymeric binders, that is applied on the image-side of the base substrate, below the ink-receiving layer; and wherein the reactive crosslinking agent is an azetidinium-containing polyamine polymer.