mhurhangee/ep-ind-claims huggingface dataset:
An optical cable (1, 2, 3) comprising an optical core (100, 200, 300) and an external sheath (101, 201, 301) surrounding said optical core (100, 200, 300), wherein said external sheath (101, 201, 301) comprises: - an inner layer (105a, 205, 305a) circumferentially enclosing said optical core (100, 200, 300); and - an outer layer (105b, 205b, 305b) circumferentially enclosing said inner layer (105a, 205, 305a) and comprising at least one cavity (105c, 205c, 305c) accessible from outside said external sheath (101, 201, 301) and extending through at least a portion of the thickness of said outer layer (105b, 205b, 305b), wherein said inner layer (105a, 205, 305a) and said outer layer (105b, 205b, 305b) are made of a first material having a first tensile strength and said at least one cavity (105c, 205c, 305c) of said outer layer (105b, 205b, 305b) is filled with a second material having a second tensile strength lower than said first tensile strength. - an inner layer (105a, 205, 305a) circumferentially enclosing said optical core (100, 200, 300); and - an outer layer (105b, 205b, 305b) circumferentially enclosing said inner layer (105a, 205, 305a) and comprising at least one cavity (105c, 205c, 305c) accessible from outside said external sheath (101, 201, 301) and extending through at least a portion of the thickness of said outer layer (105b, 205b, 305b),
A method of producing a magnetic powder having a composition of Nd 2 Fe 14 B comprising: producing an iron powder having a size of 0.1 μm to 1 μm by a reduction reaction of iron oxide, wherein the producing of the iron powder further comprises: reducing a mixture of at least one of an alkali metal oxide or an alkaline earth metal oxide with iron oxide under an inert gas atmosphere, in the presence of a reducing agent; or reducing a mixture of neodymium oxide and iron oxide which has been wet-mixed under an organic solvent, in the presence of a reducing agent to produce an iron powder and neodymium oxide-containing mixture; producing a magnetic powder using a molded body obtained by press molding a mixture including the iron powder, a neodymium oxide, boron, and calcium at a pressure of 22 MPa to 200 MPa and heating the molded body at a temperature of 800°C to 1,100°C under an inert gas atmosphere; after the producing of a magnetic powder, pulverizing the molded body to obtain a powder and then removing a by-product using a quaternary ammonium-based methanol solution; and cleaning the powder from which the by-product has been removed with a solvent and drying the cleaned powder; and coating a surface of the magnetic powder with ammonium fluoride. producing an iron powder having a size of 0.1 μm to 1 μm by a reduction reaction of iron oxide, wherein the producing of the iron powder further comprises: reducing a mixture of at least one of an alkali metal oxide or an alkaline earth metal oxide with iron oxide under an inert gas atmosphere, in the presence of a reducing agent; or reducing a mixture of neodymium oxide and iron oxide which has been wet-mixed under an organic solvent, in the presence of a reducing agent to produce an iron powder and neodymium oxide-containing mixture; producing a magnetic powder using a molded body obtained by press molding a mixture including the iron powder, a neodymium oxide, boron, and calcium at a pressure of 22 MPa to 200 MPa and heating the molded body at a temperature of 800°C to 1,100°C under an inert gas atmosphere; after the producing of a magnetic powder, pulverizing the molded body to obtain a powder and then removing a by-product using a quaternary ammonium-based methanol solution; and cleaning the powder from which the by-product has been removed with a solvent and drying the cleaned powder; and coating a surface of the magnetic powder with ammonium fluoride.
A method of receiving a downlink control channel comprising at least one control channel element, CCE, each consisting of 6 resource element groups, REGs, at a user equipment, UE, in a wireless communication system, the method being performed by the UE and comprising: receiving, from a base station, BS, via a higher layer, first information on a REG bundle size for bundling a plurality of REGs into one or more REG bundles and second information on a size of a matrix for interleaving the one or more REG bundles; receiving, the downlink control channel over a control resource set, CORESET, wherein the one or more REG bundles are interleaved within the CORESET based on the matrix, wherein the matrix is determined based on the first information on the REG bundle size and the second information on the size of the matrix, wherein a duration of the CORESET is configured to be 2 or 3 Orthogonal Frequency Division Multiplexed, OFDM, symbols, wherein the first information on the REG bundle size is configured based on the duration of the CORESET, and wherein, based on a value of the second information being equal to a number of REG bundles included in each CCE, the REG bundles of each CCE are mapped to physical resources at a regular interval. receiving, from a base station, BS, via a higher layer, first information on a REG bundle size for bundling a plurality of REGs into one or more REG bundles and second information on a size of a matrix for interleaving the one or more REG bundles; receiving, the downlink control channel over a control resource set, CORESET, wherein the one or more REG bundles are interleaved within the CORESET based on the matrix, wherein the matrix is determined based on the first information on the REG bundle size and the second information on the size of the matrix, wherein a duration of the CORESET is configured to be 2 or 3 Orthogonal Frequency Division Multiplexed, OFDM, symbols, wherein the first information on the REG bundle size is configured based on the duration of the CORESET, and wherein, based on a value of the second information being equal to a number of REG bundles included in each CCE, the REG bundles of each CCE are mapped to physical resources at a regular interval.
A method on a server device for authenticating a client device being in data communication with the server device, having the following steps within the framework of a data communication session: first authentication (S8-S11) of the client device by checking whether there is a match between a one-time password of the client device received by the server device and a one-time password present on the server device; generating (S1, S23) a one-time password and transmitting the one-time password to the client device; characterized in that the one-time password received in the step of the first authentication (S8-S11) is a first one-time password for a preliminary authentication within the framework of the data communication session; the generated and transmitted one-time password is a further one-time password for a further preliminary authentication of the client device within the framework of a subsequent data communication session; the first, preliminary authentication (S8-S11) is effected if a server load is above a predetermined load threshold; and a secure authentication (S13-S20) of the client device is effected as soon as the server load is not or is no longer above the load threshold. first authentication (S8-S11) of the client device by checking whether there is a match between a one-time password of the client device received by the server device and a one-time password present on the server device; generating (S1, S23) a one-time password and transmitting the one-time password to the client device; characterized in that the one-time password received in the step of the first authentication (S8-S11) is a first one-time password for a preliminary authentication within the framework of the data communication session; the generated and transmitted one-time password is a further one-time password for a further preliminary authentication of the client device within the framework of a subsequent data communication session; the first, preliminary authentication (S8-S11) is effected if a server load is above a predetermined load threshold; and a secure authentication (S13-S20) of the client device is effected as soon as the server load is not or is no longer above the load threshold.
A composition for a laminated material used for a medical lubricating member, the composition comprising: a polymer b including a polysiloxane structure; a catalyst for crosslinking reaction; and a crosslinking agent, wherein the polymer b includes, as a constituent component, at least one of an acrylic acid component, an acrylic acid ester component, an acrylamide component, or a styrene component, the polymer b has at least one of a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or an acid anhydride structure, and the crosslinking agent includes at least one of a crosslinking agent having a structural unit represented by formula below or a crosslinking agent represented by formula below, wherein R CL represents a hydrogen atom or an organic group, X represents a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or a group having an acid anhydride structure, Y represents an m-valent linking group, m represents an integer of 2 or more, and R dm has the same definition as X. a polymer b including a polysiloxane structure; a catalyst for crosslinking reaction; and a crosslinking agent, wherein the polymer b includes, as a constituent component, at least one of an acrylic acid component, an acrylic acid ester component, an acrylamide component, or a styrene component, the polymer b has at least one of a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or an acid anhydride structure, and the crosslinking agent includes at least one of a crosslinking agent having a structural unit represented by formula below or a crosslinking agent represented by formula below, wherein R CL represents a hydrogen atom or an organic group, X represents a hydroxy group, a carboxy group, an amino group, an isocyanate group, an oxazolinyl group, an epoxy group, a vinyl group, an ethynyl group, a sulfanyl group, an azide group, a trialkoxysilyl group, or a group having an acid anhydride structure, Y represents an m-valent linking group, m represents an integer of 2 or more, and R dm has the same definition as X.
Thread-reinforced joint device (46, 52) for a coupling device of a vehicle drive, in particular of a low-floor vehicle, comprising: - a plurality of coupling elements (64, 74), - a plurality of thread packages (56, 58), wherein a thread package (56, 58) couples adjacent coupling elements (64, 74) in a force-transmitting manner, - a support device arranged for axially guiding at least one of the thread packages (56, 58) on at least one of the coupling elements (64, 74); - at least one elastic body in which the plurality of thread packages (56, 58) and the coupling elements (64, 74) are at least partially embedded, characterized in that the coupling elements (64, 74) are formed and/or positionable such that the thread-reinforced joint device (46, 52) is adaptable to different attachment interfaces of a coupling device (18, 200, 300), wherein at least a first group of coupling elements is arranged on a first radius and a second group of coupling elements is arranged on a second radius, wherein the first radius is different from the second radius, wherein the first group of coupling elements is looped by a first group of the thread packages, and wherein the second group of coupling elements is looped by a second group of the thread packages. - a plurality of coupling elements (64, 74), - a plurality of thread packages (56, 58), wherein a thread package (56, 58) couples adjacent coupling elements (64, 74) in a force-transmitting manner, - a support device arranged for axially guiding at least one of the thread packages (56, 58) on at least one of the coupling elements (64, 74); - at least one elastic body in which the plurality of thread packages (56, 58) and the coupling elements (64, 74) are at least partially embedded, characterized in that the coupling elements (64, 74) are formed and/or positionable such that the thread-reinforced joint device (46, 52) is adaptable to different attachment interfaces of a coupling device (18, 200, 300), wherein at least a first group of coupling elements is arranged on a first radius and a second group of coupling elements is arranged on a second radius, wherein the first radius is different from the second radius, wherein the first group of coupling elements is looped by a first group of the thread packages, and wherein the second group of coupling elements is looped by a second group of the thread packages.
A method for configuring multiflow, comprising: receiving, by a second base station, a first check instruction from a first radio network controller, wherein the first check instruction comprises identification information of a user equipment, UE, that has established a connection with a first base station and the first base station is controlled by the first radio network controller; checking, by the second base station, whether the UE is in a coverage area of the second base station according to the first check instruction; informing, by the second base station, the first radio network controller of information that the UE is detected to be in the coverage area of the second base station, so that the first radio network controller performs multiflow configuration according to the check result; and performing, by the second base station, multiflow configuration according to a configuration instruction and multiflow configuration information that are sent by the first radio network controller, so that a cell of the first base station and a cell of the second base station jointly provide multiflow service to the UE as multiflow serving cells. receiving, by a second base station, a first check instruction from a first radio network controller, wherein the first check instruction comprises identification information of a user equipment, UE, that has established a connection with a first base station and the first base station is controlled by the first radio network controller; checking, by the second base station, whether the UE is in a coverage area of the second base station according to the first check instruction; informing, by the second base station, the first radio network controller of information that the UE is detected to be in the coverage area of the second base station, so that the first radio network controller performs multiflow configuration according to the check result; and performing, by the second base station, multiflow configuration according to a configuration instruction and multiflow configuration information that are sent by the first radio network controller, so that a cell of the first base station and a cell of the second base station jointly provide multiflow service to the UE as multiflow serving cells.
An antenna apparatus of an electronic device, wherein the antenna apparatus comprises a ground plane and an exciting element of the electronic device, wherein the exciting element has a first branch and two second branches (29-1, 29-3), and the two second branches (29-1, 29-3) are respectively connected to two ends of the first branch; an end of each second branch (29-1, 29-3) that is away from the first branch is connected to the ground plane; the two second branches (29-1, 29-3) are used to set the first branch on the ground plane, and a gap is formed between the first branch and the ground plane; the ground plane comprises a first side and a second side that are opposite to each other, and a third side and a fourth side that are opposite to each other, wherein L1 is less than L2, L1 is a distance from the exciting element to the first side of the ground plane, and L2 is a distance from the exciting element to the second side of the ground plane; wherein p1 is a distance from a first end of the exciting element to the third side, and p2 is a distance from a second end of the exciting element to the fourth side of the ground plane; and the first end of the exciting element is an end close to the third side, and the second end of the exciting element is an end close to the fourth side; and a feeding port is disposed on the exciting element, a first slot is disposed on the first branch, and a first capacitor is formed by the first slot between two parts of the first branch, wherein p1 is equal to p2, wherein the feeding port is disposed on a second branch. the exciting element has a first branch and two second branches (29-1, 29-3), and the two second branches (29-1, 29-3) are respectively connected to two ends of the first branch; an end of each second branch (29-1, 29-3) that is away from the first branch is connected to the ground plane; the two second branches (29-1, 29-3) are used to set the first branch on the ground plane, and a gap is formed between the first branch and the ground plane; the ground plane comprises a first side and a second side that are opposite to each other, and a third side and a fourth side that are opposite to each other, wherein L1 is less than L2, L1 is a distance from the exciting element to the first side of the ground plane, and L2 is a distance from the exciting element to the second side of the ground plane; wherein p1 is a distance from a first end of the exciting element to the third side, and p2 is a distance from a second end of the exciting element to the fourth side of the ground plane; and the first end of the exciting element is an end close to the third side, and the second end of the exciting element is an end close to the fourth side; and a feeding port is disposed on the exciting element, a first slot is disposed on the first branch, and a first capacitor is formed by the first slot between two parts of the first branch, wherein p1 is equal to p2, wherein the feeding port is disposed on a second branch.
A computer-implemented method for identifying and tracking real world objects to automatically apply predefined computer-generated effects to virtual world representations of the real world objects, comprising: defining and saving to a memory, a user profile, the user profile including data for identifying and tracking the user with a depth sensing camera; defining and saving to the memory, animations to be integrated into a virtual world scene associated with the user profile and applied for an avatar representation of the user; capturing a scene using the depth sensing camera; identifying the user within the scene using the depth sensing camera and the user profile data for identifying and tracking the user; automatically applying the defined animations based on the identified and tracked user to a virtual world representation of the captured scene by animating the avatar representation in response to real-word actions detected by the depth sensing camera; and displaying, on a display screen, the animations integrated with the representation of the captured scene. defining and saving to a memory, a user profile, the user profile including data for identifying and tracking the user with a depth sensing camera; defining and saving to the memory, animations to be integrated into a virtual world scene associated with the user profile and applied for an avatar representation of the user; capturing a scene using the depth sensing camera; identifying the user within the scene using the depth sensing camera and the user profile data for identifying and tracking the user; automatically applying the defined animations based on the identified and tracked user to a virtual world representation of the captured scene by animating the avatar representation in response to real-word actions detected by the depth sensing camera; and displaying, on a display screen, the animations integrated with the representation of the captured scene.
An image sensor comprising: a pixel unit, the pixel unit including a photodiode, a first color filter and a second color filter each disposed in a different position on a plane above the photodiode, and a first on-chip lens disposed over the first color filter and a second on-chip lens disposed over the second color filter. a pixel unit, the pixel unit including a photodiode, a first color filter and a second color filter each disposed in a different position on a plane above the photodiode, and a first on-chip lens disposed over the first color filter and a second on-chip lens disposed over the second color filter.
Bovine milk fat comprising, based on the total fatty acid weight, a. 8.9-20 wt% linoleic acid (C18:2 cis, 9,12), b. 0.9-2.4 wt% alpha-linolenic acid (C18:3 cis 9,12,15), and c. 3-5 wt% butyric acid (C4:0). wherein the weight ratio linoleic acid to alpha-linolenic acid is in the range of 4:1 - 10:1. a. 8.9-20 wt% linoleic acid (C18:2 cis, 9,12), b. 0.9-2.4 wt% alpha-linolenic acid (C18:3 cis 9,12,15), and c. 3-5 wt% butyric acid (C4:0).
A composition comprising a cytotoxic agent and a thymic stromal lymphopoietin (TSLP) inducer, wherein the TSLP inducer comprises about 0.002% to about 0.005% calcipotriol, for use in the treatment or prevention of a precancerous skin lesion, wherein the treatment comprises topically administering the composition to the lesion.
Apparatus for checking tyres comprising: - a support frame; - a flange for attaching said support frame to a movement member for moving the apparatus; - an acquisition system for acquiring digital images of a surface of a tyre, said acquisition system being mounted on said support frame and comprising: - a camera having a focal plane and a first optical axis, and - an illumination system adapted to illuminate at least a focal point placed on the intersection of said focal plane with said first optical axis; characterized in that the apparatus comprises a scanning system mounted on said support frame and adapted to detect a spatial shape of at least one internal surface portion of said tyre; wherein a first reference plane passes through said first optical axis, said illumination system and said scanning system, and wherein, with respect to a second reference plane orthogonal to said first reference plane and passing through said first optical axis, said illumination system lies in a half-space opposite to a half-space in which said scanning system lies. - a support frame; - a flange for attaching said support frame to a movement member for moving the apparatus; - an acquisition system for acquiring digital images of a surface of a tyre, said acquisition system being mounted on said support frame and comprising: - a camera having a focal plane and a first optical axis, and - an illumination system adapted to illuminate at least a focal point placed on the intersection of said focal plane with said first optical axis; characterized in that the apparatus comprises a scanning system mounted on said support frame and adapted to detect a spatial shape of at least one internal surface portion of said tyre; wherein a first reference plane passes through said first optical axis, said illumination system and said scanning system, and wherein, with respect to a second reference plane orthogonal to said first reference plane and passing through said first optical axis, said illumination system lies in a half-space opposite to a half-space in which said scanning system lies. - a camera having a focal plane and a first optical axis, and - an illumination system adapted to illuminate at least a focal point placed on the intersection of said focal plane with said first optical axis;