mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of quantifying a specific biological material in a specimen that has been stained using fluorescent dye accumulating particles capable of binding to the specific biological material, the biological material quantifying method comprising: an input step (S3, S6) of inputting a first fluorescence image obtained by capturing an image of the specimen; a luminance calculation step (S5, S8) of extracting a certain region from the first fluorescence image and calculating a first luminance integrated value by integrating luminance values of the certain region; and a particle count calculation step of calculating the number of the fluorescent dye accumulating particles included in the certain region from the first luminance integrated value and an average luminance value per said fluorescent dye accumulating particle, wherein the average luminance value is calculated from a distribution of second luminance integrated values obtained by integrating luminance values for individual bright spot regions, which indicate emission of light by the fluorescent dye accumulating particles, in a second fluorescence image obtained by capturing an image of a preparation onto which the fluorescent dye accumulating particles are dispersed without agglomerating. an input step (S3, S6) of inputting a first fluorescence image obtained by capturing an image of the specimen; a luminance calculation step (S5, S8) of extracting a certain region from the first fluorescence image and calculating a first luminance integrated value by integrating luminance values of the certain region; and a particle count calculation step of calculating the number of the fluorescent dye accumulating particles included in the certain region from the first luminance integrated value and an average luminance value per said fluorescent dye accumulating particle, wherein the average luminance value is calculated from a distribution of second luminance integrated values obtained by integrating luminance values for individual bright spot regions, which indicate emission of light by the fluorescent dye accumulating particles, in a second fluorescence image obtained by capturing an image of a preparation onto which the fluorescent dye accumulating particles are dispersed without agglomerating.
An electric wire protection member covering and protecting an outer periphery of an electric wire, the electric wire protection member comprising: an exterior member having a tubular body made of a flexible resin and in which peak portions and valley portions are alternately formed in an axial direction over a peripheral direction orthogonal to the axial direction; and a tubular bending restriction member accommodated in the exterior member and capable of bending in one direction with one side portion as an inner side, wherein the bending restriction member includes a cut-out portion and a plurality of divided tubular portions connected by a connecting portion formed in the one side portion, characterized in that the cut-out portion is inclined in the axial direction with respect to a radial direction of the bending restriction member. an exterior member having a tubular body made of a flexible resin and in which peak portions and valley portions are alternately formed in an axial direction over a peripheral direction orthogonal to the axial direction; and a tubular bending restriction member accommodated in the exterior member and capable of bending in one direction with one side portion as an inner side, wherein the bending restriction member includes a cut-out portion and a plurality of divided tubular portions connected by a connecting portion formed in the one side portion, characterized in that the cut-out portion is inclined in the axial direction with respect to a radial direction of the bending restriction member.
A system for collecting fluid from a specific region of wellbore, comprising: a single packer the system being characterized by: an outer structural layer expandable in a wellbore across an expansion zone, the outer structural layer comprising a plurality of drains within the expansion zone; an inflatable bladder disposed within the outer structural layer; and a seal layer disposed on the outer structural layer, each drain cooperating with the seal layer and a drain feature which facilitates flow through each drain over the life of the single packer. an outer structural layer expandable in a wellbore across an expansion zone, the outer structural layer comprising a plurality of drains within the expansion zone; an inflatable bladder disposed within the outer structural layer; and a seal layer disposed on the outer structural layer, each drain cooperating with the seal layer and a drain feature which facilitates flow through each drain over the life of the single packer.
A beam steering device comprising: an optical waveguide comprising 2 M -1 split points configured to split input light M times in a full binary tree structure into a plurality of split light along a plurality of paths, and output the plurality of split light to 2 M output terminals which are aperiodically arranged; a plurality of phase shifters provided in the plurality of paths, wherein at least two phase shifters among the plurality of phase shifters have different phase delay length; and a signal input unit configured to supply the same signal to each of the plurality of phase shifters; wherein M is an integer greater than 1; the optical waveguide comprising at each split point a splitter configured to split input light into two branches of light, wherein the phase shifters are arranged respectively at only one of the two branches split from each of the splitters. an optical waveguide comprising 2 M -1 split points configured to split input light M times in a full binary tree structure into a plurality of split light along a plurality of paths, and output the plurality of split light to 2 M output terminals which are aperiodically arranged; a plurality of phase shifters provided in the plurality of paths, wherein at least two phase shifters among the plurality of phase shifters have different phase delay length; and a signal input unit configured to supply the same signal to each of the plurality of phase shifters; wherein M is an integer greater than 1; the optical waveguide comprising at each split point a splitter configured to split input light into two branches of light, wherein the phase shifters are arranged respectively at only one of the two branches split from each of the splitters.
A spectrum analysis apparatus comprising: a processing unit configured to generate analysis data characterized in that the analysis data are generated using an analysis function in which a linear function and a logarithmic function are included as function elements and an intensity value from measurement data including the intensity value of light acquired by detecting the light from a measurement target object using a plurality of light-receiving elements having different detection wavelength bands is set as a variable for the analysis function, and the processing unit is configured to correct the intensity value according to a detection wavelength band width of each light-receiving element and to generate the analysis data. a processing unit configured to generate analysis data characterized in that the analysis data are generated using an analysis function in which a linear function and a logarithmic function are included as function elements and an intensity value from measurement data including the intensity value of light acquired by detecting the light from a measurement target object using a plurality of light-receiving elements having different detection wavelength bands is set as a variable for the analysis function, and the processing unit is configured to correct the intensity value according to a detection wavelength band width of each light-receiving element and to generate the analysis data.
An imaging device of a reconnaissance vehicle, the imaging device comprising an image capturing unit (32, 33, 34) configured when activated to capture photographic or video images of a photographic area, a storage unit configured to store the photographic or video images generated by the imaging device, and a control unit configured to communicate via a universal serial bus, USB, interface with a control body unit of the reconnaissance vehicle, the control unit being configured to operate in an image photographing mode in which the control unit is configured to receive control information from the control body unit of the reconnaissance vehicle via the USB interface in accordance with a picture transfer protocol, PTP, and in an image transfer mode in which the control unit is configured to transfer the photographic or video images from the storage unit to the control body unit of the reconnaissance vehicle via the USB interface in accordance with a mass storage class, MSC, protocol, wherein the control unit is configured in response to detecting mode switching conditions after the imaging device has captured one or more photographic images or video images of a photographic area to switch autonomously from the image photographing mode to the image transfer mode to transfer the one or more photographic or video images to the control body unit of the reconnaissance vehicle, wherein the mode switching conditions comprise one or more of a position of the reconnaissance vehicle, a speed of the reconnaissance vehicle, and an image photographing interval of the imaging device. an image capturing unit (32, 33, 34) configured when activated to capture photographic or video images of a photographic area, a storage unit configured to store the photographic or video images generated by the imaging device, and a control unit configured to communicate via a universal serial bus, USB, interface with a control body unit of the reconnaissance vehicle, the control unit being configured to operate in an image photographing mode in which the control unit is configured to receive control information from the control body unit of the reconnaissance vehicle via the USB interface in accordance with a picture transfer protocol, PTP, and in an image transfer mode in which the control unit is configured to transfer the photographic or video images from the storage unit to the control body unit of the reconnaissance vehicle via the USB interface in accordance with a mass storage class, MSC, protocol, wherein the control unit is configured in response to detecting mode switching conditions after the imaging device has captured one or more photographic images or video images of a photographic area to switch autonomously from the image photographing mode to the image transfer mode to transfer the one or more photographic or video images to the control body unit of the reconnaissance vehicle, wherein the mode switching conditions comprise one or more of a position of the reconnaissance vehicle, a speed of the reconnaissance vehicle, and an image photographing interval of the imaging device.
A surgical fastener applying apparatus, comprising: a first jaw having proximal and distal ends and including an elongated anvil member, the elongated anvil member extending along a longitudinal axis and including a tissue contacting surface; a second jaw having proximal and distal ends, the proximal end of the second jaw pivotably coupled to the proximal end of the first jaw and including a cartridge member; further including a plurality of surgical fasteners positioned within the cartridge member, each surgical fastener having an equivalent height; a hemostasis member positioned between the first jaw and the second jaw, wherein the hemostasis member having tissue contacting surfaces, with the tissue contacting surfaces of the hemostasis member having a stepped profile configured and dimensioned to apply at least two different compressive forces to tissue during approximation of the first and second jaws (1010, 1012); characterized in that the hemostasis member has a height that is varied along the longitudinal axis such that the compressive forces are varied along the longitudinal axis a first jaw having proximal and distal ends and including an elongated anvil member, the elongated anvil member extending along a longitudinal axis and including a tissue contacting surface; a second jaw having proximal and distal ends, the proximal end of the second jaw pivotably coupled to the proximal end of the first jaw and including a cartridge member; further including a plurality of surgical fasteners positioned within the cartridge member, each surgical fastener having an equivalent height; a hemostasis member positioned between the first jaw and the second jaw, wherein the hemostasis member having tissue contacting surfaces, with the tissue contacting surfaces of the hemostasis member having a stepped profile configured and dimensioned to apply at least two different compressive forces to tissue during approximation of the first and second jaws (1010, 1012); characterized in that the hemostasis member has a height that is varied along the longitudinal axis such that the compressive forces are varied along the longitudinal axis
A method for producing aluminum chloride hydrate particles of a desired basicity, said method comprising: applying a heated gas stream to a circular mill to establish and maintain a circulating gas stream within the mill at a constant operating temperature in a range of between 93°C and 204°C (200°F and 400°F); feeding aluminum chloride hexahydrate crystals into the circular mill, wherein aluminum chlorohydrate particles are formed and the resulting particles are separated based on particle density, the particles having a basicity that is a function of the constant operating temperature; and collecting dried aluminum chlorohydrate particles as the particles exit the circular mill. applying a heated gas stream to a circular mill to establish and maintain a circulating gas stream within the mill at a constant operating temperature in a range of between 93°C and 204°C (200°F and 400°F); feeding aluminum chloride hexahydrate crystals into the circular mill, wherein aluminum chlorohydrate particles are formed and the resulting particles are separated based on particle density, the particles having a basicity that is a function of the constant operating temperature; and collecting dried aluminum chlorohydrate particles as the particles exit the circular mill.
A light or X-ray sensor arrangement comprising: a substrate having a first main surface and a second main surface, a signal generating layer on the second main surface of the substrate, said signal generating layer comprising a matrix-like grid of pixel sensors (21, 22, 23) consisting of a plurality of first pixel electrodes on the second main surface of the substrate; a thin-film type light-sensitive or X-ray sensitive structure arranged on the first pixel electrodes; and a plurality of second pixel electrodes on the light-sensitive or X-ray sensitive structure; wherein a connection layer provided directly on the signal generating layer, said connection layer comprising a passivation layer, a plurality of connections on the passivation layer and a plurality of through vias in the passivation layer filled with an electrically conductive material and connecting respective second pixel electrodes with said connections; and at least one component with an integrated circuit covering said pixel sensors (21, 22, 23), the integrated circuit being provided on the connection layer and connected to said connections in order to read out the sensor signals generated from light or X-rays impinging on the matrix like grid of pixel sensors (21, 22, 23) through the first main surface of the substrate. a substrate having a first main surface and a second main surface, a signal generating layer on the second main surface of the substrate, said signal generating layer comprising a matrix-like grid of pixel sensors (21, 22, 23) consisting of a plurality of first pixel electrodes on the second main surface of the substrate; a thin-film type light-sensitive or X-ray sensitive structure arranged on the first pixel electrodes; and a plurality of second pixel electrodes on the light-sensitive or X-ray sensitive structure; wherein a connection layer provided directly on the signal generating layer, said connection layer comprising a passivation layer, a plurality of connections on the passivation layer and a plurality of through vias in the passivation layer filled with an electrically conductive material and connecting respective second pixel electrodes with said connections; and at least one component with an integrated circuit covering said pixel sensors (21, 22, 23), the integrated circuit being provided on the connection layer and connected to said connections in order to read out the sensor signals generated from light or X-rays impinging on the matrix like grid of pixel sensors (21, 22, 23) through the first main surface of the substrate.
A polymerizable composition comprising a phthalonitrile compound and a compound of Formula 1 below: wherein, X 1 to X 3 are each the same or different aromatic divalent radical, Y 1 and Y 2 are each the same or different aryl group substituted with at least one amine group, R 1 to R 4 are each independently a hydrogen atom, an alkyl group, an alkoxy group or an aryl group and n is a number in a range of 0 to 20.
A method for controlling access of a terminal to a network, wherein the method comprises: detecting, by a network data analysis function, whether a target terminal is exposed to a security threat; and sending, by the network data analysis function, a message to a storage function network element based on a detection result, wherein the message comprises device information and network access indication information, the device information comprises a set identifier of a terminal set, and the terminal set comprises the target terminal and at least one other terminal, and the device information is used to indicate at least one terminal comprising the target terminal, and the network access indication information is used to instruct to allow or forbid the at least one terminal to access a network. detecting, by a network data analysis function, whether a target terminal is exposed to a security threat; and sending, by the network data analysis function, a message to a storage function network element based on a detection result, wherein the message comprises device information and network access indication information, the device information comprises a set identifier of a terminal set, and the terminal set comprises the target terminal and at least one other terminal, and the device information is used to indicate at least one terminal comprising the target terminal, and the network access indication information is used to instruct to allow or forbid the at least one terminal to access a network.
A method for assembling a rotor of an interior permanent magnet rotary machine comprising a rotor having an axis of rotation and comprising a rotor yoke having bores and a plurality of permanent magnet segments disposed in the bores of the rotor yoke, each permanent magnet segment consisting of a plurality of magnet pieces, the magnet pieces being of sintered Nd base rare earth magnet, each piece of the sintered Nd base rare earth magnet having a coercive force profile from the surface toward the interior, which is created by letting Dy or Tb diffuse from the surface toward the interior of the magnet piece, each magnet piece having: (i) a length in an axial direction; (ii) a thickness in a magnetization direction; and (iii) a width in a direction perpendicular to the length and thickness, wherein the smallest one of dimensions W, L, and T is not more than 50 mm, the method comprising the steps of: coating the bore with an adhesive before magnet pieces are inserted into the bore; inserting the plurality of magnet pieces in each bore of the rotor yoke, characterized in that the dimensions of each initial grain boundary diffusion treated magnet piece are the same as the dimensions of each corresponding final magnet piece constituting each permanent magnet segment in the bore to eliminate any loss of magnet material, and each of the magnet pieces is kept loose from each other, so as to axially stack the magnet pieces in the bore, and then tightly binding the stacked magnet pieces into the bore of the rotor yoke by curing the adhesive to form an integral assembly of the magnet pieces as the magnet segments such that subsurface region of the magnet piece where coercive force has been enhanced is not abraded away by finish grinding of the integral assembly of the magnet pieces into the final shape of the magnet segment. (i) a length in an axial direction; (ii) a thickness in a magnetization direction; and (iii) a width in a direction perpendicular to the length and thickness, wherein the smallest one of dimensions W, L, and T is not more than 50 mm, coating the bore with an adhesive before magnet pieces are inserted into the bore; inserting the plurality of magnet pieces in each bore of the rotor yoke, characterized in that the dimensions of each initial grain boundary diffusion treated magnet piece are the same as the dimensions of each corresponding final magnet piece constituting each permanent magnet segment in the bore to eliminate any loss of magnet material, and each of the magnet pieces is kept loose from each other, so as to axially stack the magnet pieces in the bore, and then tightly binding the stacked magnet pieces into the bore of the rotor yoke by curing the adhesive to form an integral assembly of the magnet pieces as the magnet segments such that subsurface region of the magnet piece where coercive force has been enhanced is not abraded away by finish grinding of the integral assembly of the magnet pieces into the final shape of the magnet segment.
A method of reinforcing a vehicle seat structural member that is a component of a vehicle seat providing structural integrity for the vehicle seat in the event of a crash comprising: identifying a reinforcement region of the vehicle seat structural member based on an area of the vehicle seat structural member that will be subjected to higher operational stress in the event of a crash than another area of the vehicle seat structural member by testing and applying stress to the vehicle seat structural member to mimic crash conditions; and attaching a reinforcement member (40, 140, 240, 340) only to the reinforcement region of the vehicle seat structural member and not to other areas of the vehicle seat structural member, wherein the reinforcement member (40, 140, 240, 340) includes at least one of structural epoxy, a plastic, a metallic member, and a composite member, wherein the reinforcement member (40, 140, 240, 340) is configured to reinforce the vehicle seat structural member in the reinforcement region. identifying a reinforcement region of the vehicle seat structural member based on an area of the vehicle seat structural member that will be subjected to higher operational stress in the event of a crash than another area of the vehicle seat structural member by testing and applying stress to the vehicle seat structural member to mimic crash conditions; and attaching a reinforcement member (40, 140, 240, 340) only to the reinforcement region of the vehicle seat structural member and not to other areas of the vehicle seat structural member, wherein the reinforcement member (40, 140, 240, 340) includes at least one of structural epoxy, a plastic, a metallic member, and a composite member, wherein the reinforcement member (40, 140, 240, 340) is configured to reinforce the vehicle seat structural member in the reinforcement region.