mhurhangee/ep-ind-claims huggingface dataset:
A visual alarm device for a bus connected alarm system, the visual alarm device to be connected with said bus supplying power and commands to the alarm visual device, the visual alarm device comprising: at least one visual alarm element for emitting a visual alarm signal at a flash rate of 0.5s to 2s; the visual alarm signal having a minimum luminous flux level within one of a plurality of predetermined alarm regions of a given dimension, at least one controller for controlling the visual alarm element so as to emit the visual alarm signal in response to an electric alarm signal supplied through a bus; a storage unit storing at least two sets of operation setting values for the controller to control the visual alarm element; each set of operation setting values being predefined depending on the dimensions of the predetermined alarm region. at least one visual alarm element for emitting a visual alarm signal at a flash rate of 0.5s to 2s; the visual alarm signal having a minimum luminous flux level within one of a plurality of predetermined alarm regions of a given dimension, at least one controller for controlling the visual alarm element so as to emit the visual alarm signal in response to an electric alarm signal supplied through a bus; a storage unit storing at least two sets of operation setting values for the controller to control the visual alarm element; each set of operation setting values being predefined depending on the dimensions of the predetermined alarm region.
A biometric sensor apparatus comprising: a plurality of light sources (110, 112, 114) arranged to irradiate an object, wherein at least two light sources of said plurality of light sources emit light at different wavelengths, said plurality of light sources (110, 112, 114) being controlled with varying drive timing signals; an optical image sensor arranged to capture radiation that has passed at least part way through the object; a data processing means for processing signals output from the optical image sensor, the data processing means being adapted to calculate at least one statistical value representative of a parameter indicating the likelihood of whether the object is a live body part based on the output from the optical image sensor, and being further arranged to determine a likelihood that the object is a live body part, wherein the data processing means is arranged to analyse the at least one statistical value for characteristics of a suspected spoofing event; and means for pseudo-randomly selecting, from the plurality of light sources (110, 112, 114), a light source that emits light at a particular wavelength to irradiate the object, and adjusting the intensity of illumination during the acquisition of the signals output from the optical image sensor so to detect a spoofing event, in the event of the suspected spoofing of the biometric sensor apparatus. a plurality of light sources (110, 112, 114) arranged to irradiate an object, wherein at least two light sources of said plurality of light sources emit light at different wavelengths, said plurality of light sources (110, 112, 114) being controlled with varying drive timing signals; an optical image sensor arranged to capture radiation that has passed at least part way through the object; a data processing means for processing signals output from the optical image sensor, the data processing means being adapted to calculate at least one statistical value representative of a parameter indicating the likelihood of whether the object is a live body part based on the output from the optical image sensor, and being further arranged to determine a likelihood that the object is a live body part, wherein the data processing means is arranged to analyse the at least one statistical value for characteristics of a suspected spoofing event; and means for pseudo-randomly selecting, from the plurality of light sources (110, 112, 114), a light source that emits light at a particular wavelength to irradiate the object, and adjusting the intensity of illumination during the acquisition of the signals output from the optical image sensor so to detect a spoofing event, in the event of the suspected spoofing of the biometric sensor apparatus.
A method for producing xylylenediamine, comprising sequential steps of: performing a first hydrogenation including hydrogenating a mixed solution including dicyanobenzene and a solvent containing liquid ammonia in a fixed-bed reactor to produce a reaction product; performing ammonia separation including separating and removing the liquid ammonia included in the reaction product to produce a reaction product; performing solid-liquid separation including subjecting the reaction product to solid-liquid separation and removing a solid component to produce a reaction product; and performing a second hydrogenation including hydrogenating the reaction product in a fixed-bed reactor, wherein the steps to are performed in a sequential order. performing a first hydrogenation including hydrogenating a mixed solution including dicyanobenzene and a solvent containing liquid ammonia in a fixed-bed reactor to produce a reaction product; performing ammonia separation including separating and removing the liquid ammonia included in the reaction product to produce a reaction product; performing solid-liquid separation including subjecting the reaction product to solid-liquid separation and removing a solid component to produce a reaction product; and performing a second hydrogenation including hydrogenating the reaction product in a fixed-bed reactor, wherein
A method of producing a seamless steel pipe, the method comprising: - applying a lubricant for hot working onto the surface of a workpiece, the lubricant comprising: 20 to 40 mass% of iron oxide; and 10 to 30 mass% of sodium silicate, wherein zinc oxide, lead oxide, and copper oxide are in total 3 mass% or less, and the lubricant containing 40 to 60 mass% of water, and - immediately thereafter, the workpiece is hot worked by performing piercing rolling of the workpiece, wherein the lubricant is applied onto the surface of the workpiece within one second just before the initiation of piercing rolling. - applying a lubricant for hot working onto the surface of a workpiece, the lubricant comprising: 20 to 40 mass% of iron oxide; and 10 to 30 mass% of sodium silicate, wherein zinc oxide, lead oxide, and copper oxide are in total 3 mass% or less, and the lubricant containing 40 to 60 mass% of water, and 20 to 40 mass% of iron oxide; and 10 to 30 mass% of sodium silicate, - immediately thereafter, the workpiece is hot worked by performing piercing rolling of the workpiece, wherein the lubricant is applied onto the surface of the workpiece within one second just before the initiation of piercing rolling.
Rotor having a preferred direction of rotation and permanent magnets at an outer radius of the rotor, wherein - an annular structure, in which the permanent magnets are mounted, is arranged at the outer radius, characterized in that - a conical hub structure is arranged at an inner radius of the rotor, is designed as a conical inner ring, and has a diameter that increases in the axial direction, and - a multiplicity of at least rib-shaped or blade-shaped structures for mechanically connecting the annular structure and the conical hub structure are provided between the annular structure and the conical hub structure in order to form a blade duct through which ambient air flows when the rotor rotates in its assigned preferred direction of rotation, wherein an outer boundary of the flowed-through blade duct is cylindrical and has a constant diameter. - an annular structure, in which the permanent magnets are mounted, is arranged at the outer radius, characterized in that - a conical hub structure is arranged at an inner radius of the rotor, is designed as a conical inner ring, and has a diameter that increases in the axial direction, and - a multiplicity of at least rib-shaped or blade-shaped structures for mechanically connecting the annular structure and the conical hub structure are provided between the annular structure and the conical hub structure in order to form a blade duct through which ambient air flows when the rotor rotates in its assigned preferred direction of rotation, wherein an outer boundary of the flowed-through blade duct is cylindrical and has a constant diameter.
An in vitro method for evaluating the anti- or pro-arrhythmic potential, cardiotoxicity and/or modulation capacity of cardiomyocyte function of compound(s), comprising the steps of: (a) providing cardiomyocytes, (b) incubating/culturing the cardiomyocytes of step (a); (c) providing a compound to be tested; (d) adding the compound of step (c) to the cardiomyocytes of step (b), and incubating the compound with the cardiomyocytes, (e) detecting the intercalated discs of cardiomyocytes, and thereby determining the area of the intercalated discs in the cardiomyocyte(s), (f) determining the density of the cardiac sodium channels Nav1.5 within said area of the intercalated discs, (g) determining whether there is a density change of the cardiac sodium channels Nav1.5 in the area of the intercalated discs as detected/visualized/determined in step (e), by comparing the density of the cardiac sodium channels Nav1.5 determined in step (f) with the density determined in isolated cardiomyocytes where in step (d) no compound was added, wherein a (relative) density change indicates that the tested compound has an anti- or pro-arrhythmic potential, cardiotoxicity and/or modulation capacity of cardiomyocyte function. (a) providing cardiomyocytes, (b) incubating/culturing the cardiomyocytes of step (a); (c) providing a compound to be tested; (d) adding the compound of step (c) to the cardiomyocytes of step (b), and incubating the compound with the cardiomyocytes, (e) detecting the intercalated discs of cardiomyocytes, and thereby determining the area of the intercalated discs in the cardiomyocyte(s), (f) determining the density of the cardiac sodium channels Nav1.5 within said area of the intercalated discs, (g) determining whether there is a density change of the cardiac sodium channels Nav1.5 in the area of the intercalated discs as detected/visualized/determined in step (e), by comparing the density of the cardiac sodium channels Nav1.5 determined in step (f) with the density determined in isolated cardiomyocytes where in step (d) no compound was added,
An encoder apparatus comprising a readhead for reading a reflective scale located adjacent the readhead, the readhead comprising: a circuit board; a sensor mounted on the circuit board, the sensor comprising one or more photodiodes for detecting light reflected from a scale located adjacent the readhead; at least one light emitting element; a light emitting element support structure; and at least one lens; characterised in that: the light emitting element is mounted to the circuit board via the light emitting element support structure, in which the light emitting element support structure comprises a folded sheet-material structure, folded to provide a three-dimensional frame, which holds the light emitting element away from the circuit board and the sensing plane of the sensor; at least a part of the light emitting element support structure extends over the sensor; and the light emitting element is located between the sensor and the lens. a circuit board; a sensor mounted on the circuit board, the sensor comprising one or more photodiodes for detecting light reflected from a scale located adjacent the readhead; at least one light emitting element; a light emitting element support structure; and at least one lens; the light emitting element is mounted to the circuit board via the light emitting element support structure, in which the light emitting element support structure comprises a folded sheet-material structure, folded to provide a three-dimensional frame, which holds the light emitting element away from the circuit board and the sensing plane of the sensor; at least a part of the light emitting element support structure extends over the sensor; and the light emitting element is located between the sensor and the lens.
A refrigerator comprising: a body having a refrigerating compartment; a refrigerating compartment door mounted to the body, to open or close the refrigerating compartment; an ice making compartment provided at the refrigerating compartment door; an ice making device arranged in the ice making compartment; an ice making tray provided at the ice making device and configured to receive and retain liquid be frozen into ice; a cold air inlet (51; 151) provided at the ice making compartment and configured to allow cold air to be introduced into the ice making compartment; and a cold air guide (60; 161) configured to guide cold air entering the ice making compartment through the cold air inlet (51; 151) toward the ice making tray; characterized in that: (a) either: - the cold air inlet is arranged at a side wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the side wall of the ice making compartment while being arranged over the ice making tray; (b) or: - the cold air inlet is arranged at a top wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the top wall of the ice making compartment. a body having a refrigerating compartment; a refrigerating compartment door mounted to the body, to open or close the refrigerating compartment; an ice making compartment provided at the refrigerating compartment door; an ice making device arranged in the ice making compartment; an ice making tray provided at the ice making device and configured to receive and retain liquid be frozen into ice; a cold air inlet (51; 151) provided at the ice making compartment and configured to allow cold air to be introduced into the ice making compartment; and a cold air guide (60; 161) configured to guide cold air entering the ice making compartment through the cold air inlet (51; 151) toward the ice making tray; characterized in that: (a) either: - the cold air inlet is arranged at a side wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the side wall of the ice making compartment while being arranged over the ice making tray; (b) or: - the cold air inlet is arranged at a top wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the top wall of the ice making compartment. (a) either: - the cold air inlet is arranged at a side wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the side wall of the ice making compartment while being arranged over the ice making tray; - the cold air inlet is arranged at a side wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the side wall of the ice making compartment while being arranged over the ice making tray; (b) or: - the cold air inlet is arranged at a top wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the top wall of the ice making compartment. - the cold air inlet is arranged at a top wall of the ice making compartment; and - the cold air guide is mounted to an inner surface of the top wall of the ice making compartment.
A method for classifying the lymphoma type of a sample, the method comprising: (a) providing a formalin-fixed and paraffin-embedded (FFPE) lymphoma sample from the subject; (b) isolating RNA from the sample; (c) obtaining gene expression data from the RNA, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (d) determining a tumor predictor score from the gene expression data, wherein the tumor predictor score is calculated by S = ∑ k = 1 58 a i x i, wherein a i is the model coefficient value for gene i as listed in Table 1, column D for determining whether the sample is PMBCL or DLBCL and as listed in Table 1, column E for determining whether the sample is ABC DLBCL or GCB DLBCL, and x i is the log 2 transformed expression signal value for gene i; and (e) when the coefficient values in column D of Table 1 are used, classifying the lymphoma as: (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (e') when the coefficient values in column E of Table 1 are used, classifying the lymphoma as: (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5. (a) providing a formalin-fixed and paraffin-embedded (FFPE) lymphoma sample from the subject; (b) isolating RNA from the sample; (c) obtaining gene expression data from the RNA, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (d) determining a tumor predictor score from the gene expression data, wherein the tumor predictor score is calculated by S = ∑ k = 1 58 a i x i, wherein a i is the model coefficient value for gene i as listed in Table 1, column D for determining whether the sample is PMBCL or DLBCL and as listed in Table 1, column E for determining whether the sample is ABC DLBCL or GCB DLBCL, and x i is the log 2 transformed expression signal value for gene i; and (e) when the coefficient values in column D of Table 1 are used, classifying the lymphoma as: (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (e') when the coefficient values in column E of Table 1 are used, classifying the lymphoma as: (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5. (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5.
A method of operating a self-propelled harvester including a front attachment with which crop material is cut and picked up, and a control device with which setting parameters of the front attachment are set, characterised in that at least one stand property of a crop material stand disposed in the field in front of the front attachment and a working result correlating with the at least one stand property of a harvested region behind the front attachment are detected by a sensor system and in dependence on the at least one stand property and the working result a necessary adaptation at least of one of the setting parameters is determined for operating the front attachment in a high cut.
A method for highly accurately counting the number of nucleic acid molecules by detecting the read errors that occur when determining a nucleic acid base sequence, the method comprising: a step for adding a pool of randomly generated barcode-sequence oligonucleotides to a mixture of a plurality of nucleic acid molecules, thereby linking barcode sequences unique to the nucleic acid molecules to the base sequences constituting each of the nucleic acid molecules; a step for determining the base sequences of the nucleic acid molecules to which the barcode sequences have been linked; a step for detecting read errors in the barcode sequences for which base sequences have been determined; a step for calculating the proportion of barcode sequences free of read errors to all of the barcode sequences for which the base sequences have been determined, on the basis of the number of reads of barcode sequences for which the base sequences have been determined, and a step of determining the number of nucleic acid molecules in the mixture based on the number of barcode sequences free of read errors wherein the barcode-sequence oligonucleotides consist of a maximum of five kinds of bases A, C, G, T and U, that are optional at each base site, wherein (i) the detection of read errors is performed by analyzing the base length of the barcode sequence; or (ii) if the randomly generated barcode-sequence oligonucleotides comprise two or three kinds of bases independently selected at each base site the detection of read errors is determined by detecting a base other than one of the two or three kinds of bases utilized at that base site. a step for adding a pool of randomly generated barcode-sequence oligonucleotides to a mixture of a plurality of nucleic acid molecules, thereby linking barcode sequences unique to the nucleic acid molecules to the base sequences constituting each of the nucleic acid molecules; a step for determining the base sequences of the nucleic acid molecules to which the barcode sequences have been linked; a step for detecting read errors in the barcode sequences for which base sequences have been determined; a step for calculating the proportion of barcode sequences free of read errors to all of the barcode sequences for which the base sequences have been determined, on the basis of the number of reads of barcode sequences for which the base sequences have been determined, and a step of determining the number of nucleic acid molecules in the mixture based on the number of barcode sequences free of read errors wherein the barcode-sequence oligonucleotides consist of a maximum of five kinds of bases A, C, G, T and U, that are optional at each base site, wherein (i) the detection of read errors is performed by analyzing the base length of the barcode sequence; or (ii) if the randomly generated barcode-sequence oligonucleotides comprise two or three kinds of bases independently selected at each base site the detection of read errors is determined by detecting a base other than one of the two or three kinds of bases utilized at that base site.
Method for managing the transfer of information packets across a wireless network comprising a first sub-network including a plurality of permanently powered routing nodes (B1,B3,AOR) and a second sub-network including a plurality of intermittently operating routing nodes (B2,B4,SR), whereby said wireless network is a Wireless Personal Area Network; at least two permanently powered routing nodes (B1,B3) of said first sub-network are associated to at least two respective intermittently operating routing nodes (B2,B4) of said second sub-network; a polling procedure is used for transferring information packets, comprising routing information packets and data information packets, from said at least two permanently powered routing nodes (B1,B3) to said respective intermittently operating routing nodes (B2,B4) of said second sub-network; when one of said permanently powered routing nodes (B1,B3) of said first sub-network has to transmit an information packet to a respective intermittently operating routing node (B2,B4) of said second sub-network, said permanently powered routing node (B1,B3): stores said information packets into a memory, waits until said intermittently operating routing node (B2,B4) is able to receive information packets and then transmits said information packet to said intermittently operating routing node (B2,B4) of said second sub-network; and, when said intermittently operating routing node (B2,B4) has to transmit an information packet to said permanently powered routing node (B1,B3), said intermittently operating routing node (B2,B4) transmits immediately said information packet to said permanently powered routing node (B1,B3).