mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding a data stream comprising a plurality of data frames (101, 102, 103, 104, 105, 106), the method comprising - generating (207, 208, 209, 210) a cryptographic value of N successive data frames and of configuration information using a cryptographic hash function, with N>1; wherein the configuration information comprises information for rendering the data stream; wherein generating (207, 208, 209, 210) the cryptographic value of the N successive data frames comprises, iteratively generating an intermediate cryptographic value of each of the N successive data frames using a starting state of the intermediate cryptographic value until an intermediate cryptographic value of the N th data frame is generated, the intermediate cryptographic value of the N th data frame representing the cryptographic value of the N successive data frames; wherein the starting state of the first data frame of the N successive data frames is an intermediate cryptographic value of the configuration information, wherein the starting state of each subsequent data frame (104, 105) of the N successive data frames is the intermediate cryptographic value of the data frame (103, 104) of the N successive data frames, which precedes the subsequent data frame (104, 105) of the N successive data frames; and - inserting the cryptographic value of the N successive data frames into a frame of the data stream subsequent to the N successive data frames. - generating (207, 208, 209, 210) a cryptographic value of N successive data frames and of configuration information using a cryptographic hash function, with N>1; wherein the configuration information comprises information for rendering the data stream; wherein generating (207, 208, 209, 210) the cryptographic value of the N successive data frames comprises, iteratively generating an intermediate cryptographic value of each of the N successive data frames using a starting state of the intermediate cryptographic value until an intermediate cryptographic value of the N th data frame is generated, the intermediate cryptographic value of the N th data frame representing the cryptographic value of the N successive data frames; wherein the starting state of the first data frame of the N successive data frames is an intermediate cryptographic value of the configuration information, wherein the starting state of each subsequent data frame (104, 105) of the N successive data frames is the intermediate cryptographic value of the data frame (103, 104) of the N successive data frames, which precedes the subsequent data frame (104, 105) of the N successive data frames; and - inserting the cryptographic value of the N successive data frames into a frame of the data stream subsequent to the N successive data frames.
Method for treating in particular viscous-pasty compositions in a housing with kneading elements (2, 3), at least one kneading element (2, 3) being monitored, a control signal being generated by the monitoring, with the aid of which signal the state of the kneading element can be clearly assigned, the control signal being generated from a drop in a pressure of the pressure medium, characterised in that when there is a drop in the pressure, pressure medium is supplied in order to maintain a predetermined pressure.
A process for the preparation of acylbenzenes represented by the following formula comprising reacting diacetoxybenzoyl chloride with a Grignard reagent in the presence of an iron-containing catalyst, wherein R represents an alkyl group with 1-10 carbon atoms.
A sliding member characterized in that a sliding surface is formed on a surface of a sliding layer to which a shot-blasting treatment is performed, the surface of the sliding surface has an uneven shape exhibiting arithmetic average roughness (Ra) of more than 0 μm but 2.0 μm or less, ten-point average roughness (Rz) of more than 0 μm but 7.5 μm or less and surface hardness (Hv) of 150-250, and the sliding surface slidably supports an object to be slid.
A method of measuring pleural effusion, in which a measuring device containing a large number of radiation sources and corresponding radiation detectors is applied to the body of the patient being examined, in the vicinity of his lungs, where radiation sources are adapted to emission and detectors to receive electromagnetic infrared radiation, in particular near infrared, including the steps comprising: - electromagnetic radiation of at least two wavelengths is emitted from the radiation sources, - in the detectors, signals constituting electromagnetic radiation re-emitted by the lungs and corresponding to emitted from sources by electromagnetic radiation of at least two wavelengths are recorded, and - the spectral characteristics of the signals received in the detector as a function of the difference in radiation intensity for different emitter detector pairs and their location on the body surface are analyzed, wherein before the emission stage from radiation sources of electromagnetic radiation with at least two wavelengths, the position of the measuring device is calibrated to detect the position of the intercostal space, in which electromagnetic radiation of wavelength λ k is emitted and received on the detector a wavelength different from the wavelengths emitted in measuring the pleural effusion and corresponding to the maximum bone tissue absorption coefficient, and wherein the method is carried out in the vertical position of the patient being examined. - electromagnetic radiation of at least two wavelengths is emitted from the radiation sources, - in the detectors, signals constituting electromagnetic radiation re-emitted by the lungs and corresponding to emitted from sources by electromagnetic radiation of at least two wavelengths are recorded, and - the spectral characteristics of the signals received in the detector as a function of the difference in radiation intensity for different emitter detector pairs and their location on the body surface are analyzed, wherein before the emission stage from radiation sources of electromagnetic radiation with at least two wavelengths, the position of the measuring device is calibrated to detect the position of the intercostal space, in which electromagnetic radiation of wavelength λ k is emitted and received on the detector a wavelength different from the wavelengths emitted in measuring the pleural effusion and corresponding to the maximum bone tissue absorption coefficient, and wherein the method is carried out in the vertical position of the patient being examined.
Method for dispensing a spray liquid onto an agricultural area by means of an agricultural spraying device which has an optical detection unit for detecting the agricultural area and a spraying unit for dispensing the spray liquid, comprising the following steps: - determining a degree of soiling of an optical element of the optical detection unit; and - dispensing the spray liquid onto the agricultural area by means of the spraying unit as a function of the determined degree of soiling. - determining a degree of soiling of an optical element of the optical detection unit; and - dispensing the spray liquid onto the agricultural area by means of the spraying unit as a function of the determined degree of soiling.
A method for recording a data block on a blockchain, wherein the blockchain comprises a plurality of blockchain branches, data blocks are recorded on the plurality of blockchain branches by a same group of accounting nodes, the method is performed by a leader accounting node in the group of accounting nodes, and the method comprises: generating a target data block; determining, in the plurality of blockchain branches, whether there is a blockchain branch having a data block on which consensus is being performed and which is to be uploaded; in a case that there are blockchain branches each having no data block on which consensus is being performed and which is to be uploaded, selecting, from the blockchain branches each having no data block on which consensus is being performed and which is to be uploaded, a blockchain branch for recording the target data block; recording an abstract of a previous data block that is recorded on the selected blockchain branch in a block header of the target data block; and transmitting the target data block to other accounting nodes in the group of accounting nodes for performing consensus, and recording the target data block on the selected blockchain branch. generating a target data block; determining, in the plurality of blockchain branches, whether there is a blockchain branch having a data block on which consensus is being performed and which is to be uploaded; in a case that there are blockchain branches each having no data block on which consensus is being performed and which is to be uploaded, selecting, from the blockchain branches each having no data block on which consensus is being performed and which is to be uploaded, a blockchain branch for recording the target data block; recording an abstract of a previous data block that is recorded on the selected blockchain branch in a block header of the target data block; and transmitting the target data block to other accounting nodes in the group of accounting nodes for performing consensus, and recording the target data block on the selected blockchain branch.
A self-piercing fastener, comprising: a planar baseplate having a top, a bottom, and a peripheral edge; a plurality of prongs fixed to said peripheral edge and extending downward past the bottom of said baseplate, each of said prongs having a central axis and an arrowhead-shaped barb fixed to a distal end, each barb having opposed front edges extending from the tip of the barb, and opposed back edges oriented at a reverse acute angle relative to the central axis of said prong; and wherein each barb is adapted to fixedly embed in the interior of a panel to which the fastener is affixed; wherein the front edges of each of said barbs have a compound tapered configuration. a planar baseplate having a top, a bottom, and a peripheral edge; a plurality of prongs fixed to said peripheral edge and extending downward past the bottom of said baseplate, each of said prongs having a central axis and an arrowhead-shaped barb fixed to a distal end, each barb having opposed front edges extending from the tip of the barb, and opposed back edges oriented at a reverse acute angle relative to the central axis of said prong; and wherein each barb is adapted to fixedly embed in the interior of a panel to which the fastener is affixed; wherein the front edges of each of said barbs have a compound tapered configuration.
An apparatus comprising: a member configured to be secured to a patient-specific prosthetic such that the member surrounds a fenestration defined by the prosthetic, the fenestration corresponding to a location of a branch blood vessel in a portion of a patient's blood vessel, the member including a first patch and a second patch, the first patch coupled to the second patch via the fenestration such that the first patch is positioned on a first side of the patient-specific prosthetic and the second patch is positioned on a second side of the patient-specific prosthetic, and at least one radiopaque element configured to indicate the location of the fenestration via radiographic imaging. a member configured to be secured to a patient-specific prosthetic such that the member surrounds a fenestration defined by the prosthetic, the fenestration corresponding to a location of a branch blood vessel in a portion of a patient's blood vessel, the member including a first patch and a second patch, the first patch coupled to the second patch via the fenestration such that the first patch is positioned on a first side of the patient-specific prosthetic and the second patch is positioned on a second side of the patient-specific prosthetic, and at least one radiopaque element configured to indicate the location of the fenestration via radiographic imaging.
Device for detecting a health condition of a subject, comprising: - a data interface for receiving sensor data of said subject and one or more disease classification parameters for characterizing one or more diseases; - an analysis unit for extracting one or more physiological and/or behavioral features from said received sensor data; wherein the device is characterized by further comprising: - a user interface for receiving a user input related to a disease activity perceived by the subject, wherein said disease activity comprises at least the occurrence of one or more symptoms; - an optimizer unit for optimizing said one or more disease classification parameters based on a correlation analysis between said one or more physiological and/or behavioral features and said user input; and - a detection unit for detecting a health condition of said subject by applying said one or more optimized disease classification parameters to said one or more physiological and/or behavioral features. - a data interface for receiving sensor data of said subject and one or more disease classification parameters for characterizing one or more diseases; - an analysis unit for extracting one or more physiological and/or behavioral features from said received sensor data; wherein the device is characterized by further comprising: - a user interface for receiving a user input related to a disease activity perceived by the subject, wherein said disease activity comprises at least the occurrence of one or more symptoms; - an optimizer unit for optimizing said one or more disease classification parameters based on a correlation analysis between said one or more physiological and/or behavioral features and said user input; and - a detection unit for detecting a health condition of said subject by applying said one or more optimized disease classification parameters to said one or more physiological and/or behavioral features.
Antibody-conjugate for use as a medicament, wherein the antibody conjugate is obtainable by a process comprising reacting a modified antibody with a linker-conjugate, wherein said linker-conjugate comprises a (hetero)cycloalkynyl group and one or more substances which are pharmaceutically active, wherein said modified antibody is an antibody comprising a GlcNAc-S x substituent, wherein GIcNAc is an N-acetylglucosamine, S x is a sugar derivative comprising x functional groups A, A is an azido group and x is 1, 2, 3 or 4, wherein said GlcNAc-S x substituent is bonded to the antibody via C1 of the core N-acetylglucosamine of said GlcNAc-S x substituent, and wherein said GIcNAc is optionally fucosylated, wherein the one or more substances which are pharmaceutically active are cytotoxins and wherein the antibody specifically binds cancer antigen.
An energy generation system, comprising: one or more photovoltaic strings (302A, 302B); a power control system comprising a plurality of inverter power control systems (318A, 318B) connected in a parallel configuration and coupled to the one or more PV strings (302A, 302B), each inverter power control system comprising: an input configured to receive direct current power; a DC to alternating current inverter stage (314A, 314B) configured to receive the DC power input; an anti-islanding relay (322A, 322B) coupled to the output of the DC/AC inverter stage (314A, 314B); a transition relay (324A, 324B) coupled to the anti-islanding relay (322A, 322B), transition relay (324A, 324B) configured to route an output of the inverter power control system (318A,318B) between one or more onsite back-up loads and an AC grid, wherein one of the plurality of inverter power control systems (318A,318B) is designated as a master that is configured to control an operation of another inverter power control system (318A,318B) designated as a slave; and one or more energy storage devices (318A,318B) coupled to the plurality of inverter power control systems (318A,318B) one or more photovoltaic strings (302A, 302B); a power control system comprising a plurality of inverter power control systems (318A, 318B) connected in a parallel configuration and coupled to the one or more PV strings (302A, 302B), each inverter power control system comprising: an input configured to receive direct current power; a DC to alternating current inverter stage (314A, 314B) configured to receive the DC power input; an anti-islanding relay (322A, 322B) coupled to the output of the DC/AC inverter stage (314A, 314B); a transition relay (324A, 324B) coupled to the anti-islanding relay (322A, 322B), transition relay (324A, 324B) configured to route an output of the inverter power control system (318A,318B) between one or more onsite back-up loads and an AC grid, wherein one of the plurality of inverter power control systems (318A,318B) is designated as a master that is configured to control an operation of another inverter power control system (318A,318B) designated as a slave; and an input configured to receive direct current power; a DC to alternating current inverter stage (314A, 314B) configured to receive the DC power input; an anti-islanding relay (322A, 322B) coupled to the output of the DC/AC inverter stage (314A, 314B); a transition relay (324A, 324B) coupled to the anti-islanding relay (322A, 322B), transition relay (324A, 324B) configured to route an output of the inverter power control system (318A,318B) between one or more onsite back-up loads and an AC grid, wherein one of the plurality of inverter power control systems (318A,318B) is designated as a master that is configured to control an operation of another inverter power control system (318A,318B) designated as a slave; and one or more energy storage devices (318A,318B) coupled to the plurality of inverter power control systems (318A,318B)
A pulse width modulation circuit for generating an adjustable output signal that periodically transitions between a first and a second state with an adjustable duty cycle that continuously varies in accordance with the amplitude of a first and a second continuously adjustable analog pulse-width control voltage (V T0, V T1) comprising: a first pulse generator circuit (303, 307, 315) configured to generate a first pulse signal that periodically transitions at an adjustable delay that continuously varies with respect to a first adjustable clock signal in accordance with the amplitude of the first continuously adjustable analog pulse-width control voltage (V T0); a second pulse generator circuit (301, 305, 313) configured to generate a second pulse signal that periodically transitions at an adjustable delay that continuously varies with respect to a second adjustable clock signal in accordance with the amplitude of the second continuously adjustable analog pulse-width control voltage (V T1); and a logic circuit configured to generate the adjustable output signal based on both the first and the second pulse signals (T0, T1); wherein the first and the second pulse generator circuits each include an adjustable clock circuit (301, 303) configured to generate the first and second adjustable clock signals having an adjustable frequency which is a function of the first and second control voltage. a first pulse generator circuit (303, 307, 315) configured to generate a first pulse signal that periodically transitions at an adjustable delay that continuously varies with respect to a first adjustable clock signal in accordance with the amplitude of the first continuously adjustable analog pulse-width control voltage (V T0); a second pulse generator circuit (301, 305, 313) configured to generate a second pulse signal that periodically transitions at an adjustable delay that continuously varies with respect to a second adjustable clock signal in accordance with the amplitude of the second continuously adjustable analog pulse-width control voltage (V T1); and a logic circuit configured to generate the adjustable output signal based on both the first and the second pulse signals (T0, T1); wherein the first and the second pulse generator circuits each include an adjustable clock circuit (301, 303) configured to generate the first and second adjustable clock signals having an adjustable frequency which is a function of the first and second control voltage.
A telepresence system comprising: a memory configured to store computer executable instructions; and one or more processors coupled to the memory, the processors configured, when executing the instructions, to: receive a video stream from a client via a video cable, the video stream including an image generated by the client; determine that the image includes a matrix barcode; decode the matrix barcode into text, the text specifying user credentials of a user associated with the client; and provision the telepresence system for the client in response to a determination that the user credentials are valid. a memory configured to store computer executable instructions; and one or more processors coupled to the memory, the processors configured, when executing the instructions, to: receive a video stream from a client via a video cable, the video stream including an image generated by the client; determine that the image includes a matrix barcode; decode the matrix barcode into text, the text specifying user credentials of a user associated with the client; and provision the telepresence system for the client in response to a determination that the user credentials are valid. receive a video stream from a client via a video cable, the video stream including an image generated by the client; determine that the image includes a matrix barcode; decode the matrix barcode into text, the text specifying user credentials of a user associated with the client; and provision the telepresence system for the client in response to a determination that the user credentials are valid.
A method, comprising: generating, by a module of a network stack of communication modules, a first command message for a target entity, the first command message including a name unique to the target entity, wherein the network stack enables a respective communication module to communicate with a layer that is not directly above or directly below the respective communication module; sending the first command message, via a message delivery system, to the target entity by inserting the first command message into a queue corresponding to the module, wherein the message delivery system uses the name unique to the target entity and a value that represents content of the queue corresponding to the module; and receiving a second command message from a sending entity via a queue corresponding to the sending entity, the second command message including a name unique to the module. generating, by a module of a network stack of communication modules, a first command message for a target entity, the first command message including a name unique to the target entity, wherein the network stack enables a respective communication module to communicate with a layer that is not directly above or directly below the respective communication module; sending the first command message, via a message delivery system, to the target entity by inserting the first command message into a queue corresponding to the module, wherein the message delivery system uses the name unique to the target entity and a value that represents content of the queue corresponding to the module; and receiving a second command message from a sending entity via a queue corresponding to the sending entity, the second command message including a name unique to the module.