mhurhangee/ep-ind-claims huggingface dataset:
An image processing device comprising: a plurality of observation mode image processing means (51, 53, 83) for performing image processing to simultaneously display observation images of a subject in a plurality of observation modes; freeze image selecting means for setting one or more of the observation images in the plurality of observation modes to be an object image or object images of freeze processing; freeze instructing means different from the image selecting means for giving an instruction to perform the freeze processing of the object image or the object images selected by the freeze image selecting means; processing control means for controlling the plurality of observation mode image processing means (51, 53, 83) so as to perform the freeze processing on the one or more of the observation images among the simultaneously displayed observation images in the plurality of observation modes, based on the instruction to perform the freeze processing by the freeze instructing means; and image synthesizing means for synthesizing the observation images generated by the observation mode image processing means (51, 53, 83) to display only the one or more observation images instructed to be frozen as a still image or still images, among the simultaneously displayed observation images in the plurality of observation modes, when the instruction to perform the freeze processing is given. a plurality of observation mode image processing means (51, 53, 83) for performing image processing to simultaneously display observation images of a subject in a plurality of observation modes; freeze image selecting means for setting one or more of the observation images in the plurality of observation modes to be an object image or object images of freeze processing; freeze instructing means different from the image selecting means for giving an instruction to perform the freeze processing of the object image or the object images selected by the freeze image selecting means; processing control means for controlling the plurality of observation mode image processing means (51, 53, 83) so as to perform the freeze processing on the one or more of the observation images among the simultaneously displayed observation images in the plurality of observation modes, based on the instruction to perform the freeze processing by the freeze instructing means; and image synthesizing means for synthesizing the observation images generated by the observation mode image processing means (51, 53, 83) to display only the one or more observation images instructed to be frozen as a still image or still images, among the simultaneously displayed observation images in the plurality of observation modes, when the instruction to perform the freeze processing is given.
A roofing device of a building aimed at resting on a framework and including, on the one hand, at least one mounting profile bar aimed at being fastened to the framework and, on the other hand, a plurality of tiles, aimed at resting on at least one mounting profile bar, and each including at least one means for receiving at least one such mounting profile bar and at least one means (7; 8) for receiving means (4; 5) for fastening a tile to such a mounting profile bar and which said device includes, wherein the tile includes: - close to a transverse edge and/or at the level of a transverse edge, a means extending transversely to the tile and between the two longitudinal edges of the tile, designed to ensure the flowing of water towards these two longitudinal edges; - interlocking means designed to cooperate with complementary interlocking means another adjacent tile includes, and formed, on the one hand, of a male interlocking means the tile chose to a transverse edge includes and/or a transverse edge of this tile includes and, on the other hand, of a female interlocking means' the tile close to another transverse edge includes and/or another transverse edge of this tile includes, this female interlocking means being formed by a groove forming, at least partially, the means for ensuring the flowing of water towards the two longitudinal edges of the tile. - close to a transverse edge and/or at the level of a transverse edge, a means extending transversely to the tile and between the two longitudinal edges of the tile, designed to ensure the flowing of water towards these two longitudinal edges; - interlocking means designed to cooperate with complementary interlocking means another adjacent tile includes, and formed, on the one hand, of a male interlocking means the tile chose to a transverse edge includes and/or a transverse edge of this tile includes and, on the other hand, of a female interlocking means' the tile close to another transverse edge includes and/or another transverse edge of this tile includes, this female interlocking means being formed by a groove forming, at least partially, the means for ensuring the flowing of water towards the two longitudinal edges of the tile.
A method of positioning a fiber optic cable, the method comprising: embedding a length of a fiber optic cable between layers of a composite rotorcraft material, wherein the composite rotorcraft material includes a primary portion and a secondary portion that protrudes from the primary portion; orienting a portion of the length of the fiber optic cable in a substantially S-shape between the layers, the substantially S-shaped portion extending from the primary portion to the secondary portion, wherein an end of the portion of the length of the fiber optic cable lies in the secondary portion; extending the end of the portion of the length of the substantially S-shaped fiber optic cable to an edge of the secondary portion of the composite rotorcraft material; and terminating the end of the portion of the length of the substantially S-shaped fiber optic cable at the edge of the secondary portion of the composite rotorcraft material. embedding a length of a fiber optic cable between layers of a composite rotorcraft material, wherein the composite rotorcraft material includes a primary portion and a secondary portion that protrudes from the primary portion; orienting a portion of the length of the fiber optic cable in a substantially S-shape between the layers, the substantially S-shaped portion extending from the primary portion to the secondary portion, wherein an end of the portion of the length of the fiber optic cable lies in the secondary portion; extending the end of the portion of the length of the substantially S-shaped fiber optic cable to an edge of the secondary portion of the composite rotorcraft material; and terminating the end of the portion of the length of the substantially S-shaped fiber optic cable at the edge of the secondary portion of the composite rotorcraft material.
A catalyst composition for polyurethane resin production, which comprises an amine compound represented by the following formula: wherein in the formula, each of R 1 and R 2 which are independent of each other, is a methyl group or an ethyl group, and R 3 is a C 2-4 linear or branched alkyl group, a hydroxy acid represented by the following formula: wherein in the formula, R 4 is a C 1-18 bivalent hydrocarbon residue, m is an integer of from 1 to 3, and n is an integer of from 1 to 6, and a tertiary amine compound with a value of [blowing reaction rate constant/gelling reaction rate constant] being at most 0.3, wherein the tertiary amine compound with a value of [blowing reaction rate constant/gelling reaction rate constant] being at most 0.3 is at least one member selected from the group consisting of N,N,N',N'-tetramethylethylenediamine, N,N,N',N'-tetramethylhexamethylenediamine, triethylenediamine, 1,8-diazabicyclo[5.4.0]undecene-7 and 1,2-dimethylimidazole.
An immune function enhancing agent for use in the prevention and/or treatment of weak calf syndrome in neonates of allogeneic animals, wherein the agent comprises activated lymphocytes derived from tissues of mammal other than human as an effective ingredient, characterized in that, the allogeneic animals are different from the mammal from which the tissues derive, wherein the allogeneic animals are animals whose leukocyte antigen is not identical to a leukocyte antigen of the mammal from which the tissues derive, and wherein the mammal is an animal in which antibodies and immune cells do not transfer from a mother to a fetus through the placenta, wherein the activated lymphocytes are activated by either one or both of interleukin-2 and anti-CD3 antibody.
A resin composition comprising a polyisobutylene resin, a polyisoprene resin and/or a polyisobutylene resin, each having a functional group capable of reacting with an epoxy group, a tackifier resin, and an epoxy resin.
A method for detecting the presence of aggregatory seeds of a polypeptide in a sample, wherein an aggregatory seed is a soluble oligomer of the polypeptide, comprising: (i) contacting the sample with monomers of the polypeptide, wherein the monomers of the polypeptide are labelled; (ii) separating the sample into a plurality of microdroplets comprising a gel-forming agent in liquid form; (iii) incubating the microdroplets under conditions suitable for aggregation of the polypeptide; (iv) transforming the microdroplets into gel beads; (v) determining the subsequent formation of aggregates of the polypeptide in the gel beads by detecting the label, wherein the formation of aggregates of the polypeptide in a gel bead indicates the presence of one or more aggregatory seeds in the sample. (i) contacting the sample with monomers of the polypeptide, wherein the monomers of the polypeptide are labelled; (ii) separating the sample into a plurality of microdroplets comprising a gel-forming agent in liquid form; (iii) incubating the microdroplets under conditions suitable for aggregation of the polypeptide; (iv) transforming the microdroplets into gel beads; (v) determining the subsequent formation of aggregates of the polypeptide in the gel beads by detecting the label,
Method for verifying the authenticity of one or more authentication messages in an authentication procedure between a network and a mobile device comprising: sending an authentication request through a first radio access node to a said mobile device, said radio access node being associated with first location information; said mobile device generating second location information comprising a list of location information associated with the location of said mobile device; and, said authentication request comprising first location information and the mobile device verifying the authenticity of the origin of said authentication request, or transmitting the second location information from the mobile device to the network and the network verifying the authenticity of the origin of said authentication message; and, wherein verifying the authenticity of the origin of said authentication message comprises checking if said first location information is comprised in the list constituted by the second location information. sending an authentication request through a first radio access node to a said mobile device, said radio access node being associated with first location information; said mobile device generating second location information comprising a list of location information associated with the location of said mobile device; and, said authentication request comprising first location information and the mobile device verifying the authenticity of the origin of said authentication request, or transmitting the second location information from the mobile device to the network and the network verifying the authenticity of the origin of said authentication message; and, wherein verifying the authenticity of the origin of said authentication message comprises checking if said first location information is comprised in the list constituted by the second location information.
A method performed by a computing system for synchronously returning thread operation from an asynchronous function to a caller function using a return data structure so that the return data structure can be reused for future asynchronous function returns within the thread, the method comprising: accessing data generated by an asynchronous function in response to a caller function placing a function call to the asynchronous function; determining that the data is to be synchronously returned within a return data structure of a particular type to the caller function; determining that the caller function will use the return data structure as populated by the data only once, wherein the determining that the caller function will use the return data structure only once as populated by the data comprises determining that there is a no-operation instruction in a predetermined location within machine code of the calling function, the no-operation being used as a signal that the return data structure will be used only once as populated by the data; and in response to determining that the caller function will use the return data structure only once as populated by the data, allocating a thread-local return data structure within the heap of the computing system; populating the thread-local return data structure with the accessed data; and returning the populated thread-local return data structure to the caller function, wherein the thread-local return data structure remains in the heap to be reused upon future returns from asynchronous functions within the thread. accessing data generated by an asynchronous function in response to a caller function placing a function call to the asynchronous function; determining that the data is to be synchronously returned within a return data structure of a particular type to the caller function; determining that the caller function will use the return data structure as populated by the data only once, wherein the determining that the caller function will use the return data structure only once as populated by the data comprises determining that there is a no-operation instruction in a predetermined location within machine code of the calling function, the no-operation being used as a signal that the return data structure will be used only once as populated by the data; and in response to determining that the caller function will use the return data structure only once as populated by the data, allocating a thread-local return data structure within the heap of the computing system; populating the thread-local return data structure with the accessed data; and returning the populated thread-local return data structure to the caller function, wherein the thread-local return data structure remains in the heap to be reused upon future returns from asynchronous functions within the thread.
A host apparatus having an operating system and which is connectable to an image forming device and to a display, comprising: a controller configured to control operations of a web capture application and a capture application; and a storage, wherein the controller is configured to: control the web capture application driven on a display to capture a first capture area displayed on a screen of a web browser, add the first capture area to a first shared clipboard displayed at one side of the screen, and save the first capture area in the storage as a first file which is compatible in the capture application, and control the capture application driven on the display to open and display the first file on a second shared clipboard displayed at one side of a desktop screen, the desktop screen being the primary user interface of the operating system of the host apparatus, capture a second capture area displayed on the desktop screen when the web browser is not active, add the second capture area to the second shared clipboard on which the first file is displayed, and save the second capture area in the storage as a second file which is compatible in the web capture application, and wherein the first and second shared clipboards correspond to the size of a printing page supported by the image forming device and at least one of the compatible first and second files is openable, and optionally editable, in the first and/or second shared clipboards. a controller configured to control operations of a web capture application and a capture application; and a storage, control the web capture application driven on a display to capture a first capture area displayed on a screen of a web browser, add the first capture area to a first shared clipboard displayed at one side of the screen, and save the first capture area in the storage as a first file which is compatible in the capture application, and control the capture application driven on the display to open and display the first file on a second shared clipboard displayed at one side of a desktop screen, the desktop screen being the primary user interface of the operating system of the host apparatus, capture a second capture area displayed on the desktop screen when the web browser is not active, add the second capture area to the second shared clipboard on which the first file is displayed, and save the second capture area in the storage as a second file which is compatible in the web capture application, and wherein the first and second shared clipboards correspond to the size of a printing page supported by the image forming device and at least one of the compatible first and second files is openable, and optionally editable, in the first and/or second shared clipboards.
Brake pad having a damping device for a disk brake for a motor vehicle, in particular for a utility vehicle, having a pad carrier plate which bears a friction pad, wherein the damping device has at least one damping element connected to the pad carrier plate, wherein the damping device comprises a connecting profile which connects the at least one damping element to the pad carrier plate by thermal cohesion, characterized in that the connecting profile comprises at least one connecting seam (13, 13a, 13b).
An information recording object comprising a superimposed image including a first ink layer and a second ink layer formed on the first ink layer, wherein the first ink layer is an image of a chromatic color formed using a lustrous material, and includes a picture image (C1b) and a background image (C1a), the second ink layer is a pattern image which is formed using a transparent material and has regularity, the first ink layer includes a shading pattern image patterned by shading of colors, the shading pattern image is an image on which a process of acquiring data for code generation can be performed by a conversion application different from the conversion application to acquire data for specifying code from the pattern image of the second ink layer, and information is allowed to be read from the shading pattern image, the background image (C1a) is the shading pattern image patterned by shading of colors, the picture image (C1b) is not the shading pattern image, the transparent material is configured so that an amount of reflected light varies depending on a viewing angle, and is allowed to be recognized by a specific viewing angle different from a viewing angle by which the first ink layer is allowed to be recognized, and the superimposed image is formed so that the second ink layer is allowed to be recognized by the specific viewing angle. a superimposed image including a first ink layer and a second ink layer formed on the first ink layer, wherein the first ink layer is an image of a chromatic color formed using a lustrous material, and includes a picture image (C1b) and a background image (C1a), the second ink layer is a pattern image which is formed using a transparent material and has regularity, the first ink layer includes a shading pattern image patterned by shading of colors, the shading pattern image is an image on which a process of acquiring data for code generation can be performed by a conversion application different from the conversion application to acquire data for specifying code from the pattern image of the second ink layer, and information is allowed to be read from the shading pattern image, the background image (C1a) is the shading pattern image patterned by shading of colors, the picture image (C1b) is not the shading pattern image, the transparent material is configured so that an amount of reflected light varies depending on a viewing angle, and is allowed to be recognized by a specific viewing angle different from a viewing angle by which the first ink layer is allowed to be recognized, and the superimposed image is formed so that the second ink layer is allowed to be recognized by the specific viewing angle.
A method by a wireless device comprising: receiving, from a network node, configuration information, wherein the configuration information configures the wireless device to provide feedback in one shot for all HARQ processes across all activated cells, the configuration information further comprising information which: enables Hybrid Automatic Repeat Request Acknowledgment, HARQ ACK, and/or Negative Acknowledgment, HARQ NACK, feedback on a per Hybrid Automatic Repeat Request, HARQ, basis for a first set of HARQ processes, each of the first set of HARQ processes being identified by a respective one of a first set of HARQ process numbers, and which: disables HARQ ACK and/or HARQ NACK feedback, on a per HARQ process basis, for a second set of HARQ processes, each of the second set of HARQ processes being identified by a respective one of a second set of HARQ process numbers; constructing a Type 3 HARQ codebook based on the first set of HARQ process numbers for first set of HARQ processes for which HARQ ACK and/or HARQ NACK feedback is enabled, and wherein the Type 3 HARQ codebook is not constructed based on the second set of HARQ processes for which HARQ ACK and/or HARQ NACK feedback is disabled; sending, to the network node, the HARQ ACK and/or HARQ NACK feedback based on the first HARQ codebook. receiving, from a network node, configuration information, wherein the configuration information configures the wireless device to provide feedback in one shot for all HARQ processes across all activated cells, the configuration information further comprising information which: enables Hybrid Automatic Repeat Request Acknowledgment, HARQ ACK, and/or Negative Acknowledgment, HARQ NACK, feedback on a per Hybrid Automatic Repeat Request, HARQ, basis for a first set of HARQ processes, each of the first set of HARQ processes being identified by a respective one of a first set of HARQ process numbers, and which: disables HARQ ACK and/or HARQ NACK feedback, on a per HARQ process basis, for a second set of HARQ processes, each of the second set of HARQ processes being identified by a respective one of a second set of HARQ process numbers; constructing a Type 3 HARQ codebook based on the first set of HARQ process numbers for first set of HARQ processes for which HARQ ACK and/or HARQ NACK feedback is enabled, and wherein the Type 3 HARQ codebook is not constructed based on the second set of HARQ processes for which HARQ ACK and/or HARQ NACK feedback is disabled; sending, to the network node, the HARQ ACK and/or HARQ NACK feedback based on the first HARQ codebook.