mhurhangee/ep-ind-claims huggingface dataset:
A method for adaptive selection of a data network, wherein the method is implemented by a terminal which supports at least two Subscriber Identity Modules, SIMs, and the method comprises the following steps: in response to the terminal being powered on, by using identification information of each SIM, searching an Access Point Name, APN, list database of the terminal for at least one group of APN, wherein the identification information of each SIM corresponds to at least one group of APN; the APN list database of the terminal comprises at least one group of APN, which enables the terminal to successfully establish a data network service for each SIM, and each group of APN corresponds to network parameters of an operator; the method further comprising: initiating a data service establishment request to a network through each group of APN as parameters in a polling manner according to the at least one group of APN searched-out to search for one group of APN which enables the terminal to successfully establish a data network service for each SIM; initiating a network usage request to a network server by using the one group of APN searched-out for each SIM as parameters respectively; and when the terminal finds that at least two groups of APNs searched-out can enable the terminal to successfully establish data network services, selecting a data network with the highest network transmission rate from all data networks to use a data service. initiating a data service establishment request to a network through each group of APN as parameters in a polling manner according to the at least one group of APN searched-out to search for one group of APN which enables the terminal to successfully establish a data network service for each SIM; initiating a network usage request to a network server by using the one group of APN searched-out for each SIM as parameters respectively; and when the terminal finds that at least two groups of APNs searched-out can enable the terminal to successfully establish data network services, selecting a data network with the highest network transmission rate from all data networks to use a data service.
A closed circulation test apparatus for performance evaluation testing of a blood purification device in a closed circuit in a state of non-contact with air, in which the blood purification device, a blood bag and a replacement fluid container are set, the closed circulation test apparatus comprising: a blood purification device; a blood bag, a blood supply line, a blood return line and a blood pump, the blood return line having resistance means provided therein; a replacement fluid container, a filtrate line, a filtrate pump, a dialysate line and a dialysate pump; wherein the closed circulation test apparatus is configured such that: blood can be sent by the blood supply line from the blood bag to the blood purification device via the blood pump; blood that has left the blood purification device can be sent by the blood return line to the blood bag via the resistance means; filtrate that has left through a dialysate outlet of the blood purification device can be sent by the filtrate line to the replacement fluid container via the filtrate pump; and dialysate or replacement fluid can be sent by the dialysate line from the replacement fluid container to a dialysate inlet of the blood purification device and/or the blood return line via the dialysate pump. a blood purification device; a blood bag, a blood supply line, a blood return line and a blood pump, the blood return line having resistance means provided therein; a replacement fluid container, a filtrate line, a filtrate pump, a dialysate line and a dialysate pump; wherein the closed circulation test apparatus is configured such that: blood can be sent by the blood supply line from the blood bag to the blood purification device via the blood pump; blood that has left the blood purification device can be sent by the blood return line to the blood bag via the resistance means; filtrate that has left through a dialysate outlet of the blood purification device can be sent by the filtrate line to the replacement fluid container via the filtrate pump; and dialysate or replacement fluid can be sent by the dialysate line from the replacement fluid container to a dialysate inlet of the blood purification device and/or the blood return line via the dialysate pump. blood can be sent by the blood supply line from the blood bag to the blood purification device via the blood pump; blood that has left the blood purification device can be sent by the blood return line to the blood bag via the resistance means; filtrate that has left through a dialysate outlet of the blood purification device can be sent by the filtrate line to the replacement fluid container via the filtrate pump; and dialysate or replacement fluid can be sent by the dialysate line from the replacement fluid container to a dialysate inlet of the blood purification device and/or the blood return line via the dialysate pump.
A computer-implemented method for enabling the enforcement of design-time policies during runtime in a service-oriented architecture, wherein the SOA comprises a plurality of SOA assets, such as web services, and at least one runtime container, the runtime container being adapted for enforcing runtime policies on SOA assets executed therein, wherein the method comprises the following steps: a. obtaining (1000, 2000) at least one design-time policy from a SOA registry of the SOA, wherein the at least one design-time policy applies to a plurality of SOA assets grouped into a design-time domain; b. automatically deriving at least one runtime policy from the at least one design-time policy and at least one runtime domain from the design-time domain, the runtime domain indicating at least one runtime container; c. performing a compatibility check to determine whether the at least one runtime policy can be enforced by the at least one runtime container; and d. if the at least one runtime policy can be enforced by the at least one runtime container, automatically deploying the at least one runtime policy to the runtime container, e. wherein the at least one design-time policy defines at least one restriction to be met by an interaction between two SOA assets from different design-time domains, wherein the at least one restriction to be met includes the restriction that SOA assets from the design-time domain are not allowed to be called by SOA assets from any other design-time domain; wherein the at least one design-time policy is defined in the SOA registry independent of a specific runtime container; and wherein the compatibility check is performed based on a mapping obtained from the SOA registry, wherein the mapping maps the design-time domain onto at least one runtime domain, the runtime domain comprising the runtime container. a. obtaining (1000, 2000) at least one design-time policy from a SOA registry of the SOA, wherein the at least one design-time policy applies to a plurality of SOA assets grouped into a design-time domain; b. automatically deriving at least one runtime policy from the at least one design-time policy and at least one runtime domain from the design-time domain, the runtime domain indicating at least one runtime container; c. performing a compatibility check to determine whether the at least one runtime policy can be enforced by the at least one runtime container; and d. if the at least one runtime policy can be enforced by the at least one runtime container, automatically deploying the at least one runtime policy to the runtime container, e. wherein the at least one design-time policy defines at least one restriction to be met by an interaction between two SOA assets from different design-time domains, wherein the at least one restriction to be met includes the restriction that SOA assets from the design-time domain are not allowed to be called by SOA assets from any other design-time domain;
A wall light apparatus comprising: a single piece wall mount extrusion and a single piece lampholder, the lampholder having upper and lower tongues (27, 39); wherein the single piece wall mount extrusion includes a vertical rear mounting surface with an interior surface having first and second projections (21, 23) extending therefrom, the first and second projections (21, 23) defining a first slot for receiving a lower tongue of the lampholder; characterized in that the single piece wall mount extrusion has a horizontally extending lamp shield; and wherein the interior of the horizontally extending lamp shield has formed thereon third and fourth projections (35, 37), the third and fourth projections (35, 37) being shaped and dimensioned to define a second slot into which fits the upper tongue of the lampholder. a single piece wall mount extrusion and a single piece lampholder, the lampholder having upper and lower tongues (27, 39); wherein the single piece wall mount extrusion includes a vertical rear mounting surface with an interior surface having first and second projections (21, 23) extending therefrom, the first and second projections (21, 23) defining a first slot for receiving a lower tongue of the lampholder; characterized in that the single piece wall mount extrusion has a horizontally extending lamp shield; and wherein the interior of the horizontally extending lamp shield has formed thereon third and fourth projections (35, 37), the third and fourth projections (35, 37) being shaped and dimensioned to define a second slot into which fits the upper tongue of the lampholder.
A composite material comprising nanoporous, more particularly granular, particles, more particularly an aerogel, and a crosslinked binder based on a binder and a crosslinker, wherein the binder is a polymer substituted with primary amino groups.
A total air temperature sensor comprising: a probe head having an airflow inlet and an airflow outlet; and a strut defining a leading edge and an opposed trailing edge extending along a longitudinal axis, the strut connecting between the probe head and an opposed probe mount; characterised by a serrated surface defined in the strut aft the leading edge as a strip in an axial direction with respect to the longitudinal axis, configured to trip a fluid boundary layer passing over the strut to transition from laminar to turbulent to reduce acoustic noise emission from the total air temperature sensor, wherein the serrated surface includes a series of connecting serrations at opposing angles, and wherein the serrations have a generally constant geometry repeated through the series. a probe head having an airflow inlet and an airflow outlet; and a strut defining a leading edge and an opposed trailing edge extending along a longitudinal axis, the strut connecting between the probe head and an opposed probe mount; characterised by a serrated surface defined in the strut aft the leading edge as a strip in an axial direction with respect to the longitudinal axis, configured to trip a fluid boundary layer passing over the strut to transition from laminar to turbulent to reduce acoustic noise emission from the total air temperature sensor, wherein the serrated surface includes a series of connecting serrations at opposing angles, and wherein the serrations have a generally constant geometry repeated through the series.
A method for producing an endless belt from at least two flat metal sheets (2, 3, 4), characterised in that the at least two metal sheets (2, 3, 4) are introduced into one of two opposing fixtures of at least one removable connection element (5, 5a), one edge (9, 10, 11, 12) of each leading, and form a composite plate, whereupon free end edges (7, 8) of the composite plate which lie opposite the edges (9, 10, 11, 12) of the metal sheets arranged in the at least one connection element are bent towards one another and welded together, whereupon the at least one connection element (5, 5a) is removed and the edges (9, 10, 11, 12) of the metal sheets (2, 3, 4) connected to one another beforehand by the at least one connection element are bent towards one another and welded together.
Polyisocyanate composition comprising a formation component having isocyanate groups, the isocyanate groups having been reacted to an extent of ≥ 98% with at least one CH-acidic compound, characterized in that the formation component consists of ≥ 51% by weight of at least one polyisocyanate based on 1,5-pentamethylene diisocyanate having a content of isocyanurate trimer of ≤ 60 area%, determined by GPC in accordance with DIN 55672-1 and based on the total weight of the polyisocyanates based on 1,5-pentamethylene diisocyanate, and the remaining proportion up to 100% by weight of the total amount of polyisocyanates present in the formation component consists of at least one aliphatic or cycloaliphatic polyisocyanate, wherein the remaining portion up to 100% by weight of the total amount of polyisocyanates present in the formation component consists of at least one aliphatic or cycloaliphatic polyisocyanate different from 1,5-pentamethylene diisocyanate and is at least 5% by weight.
One or more computer-readable media comprising a plurality of data structures, the plurality of data structures comprising: an executable code unit (102) having executable instructions, wherein the executable code unit is compiled from a source program that includes rewrite custom attributes that request one or more code rewriters, wherein the rewrite custom attributes are passed through into metadata of the executable code unit; the one or more code rewriters configured to rewrite the executable code unit by implementing a transformation of the executable code unit, the transformation comprising inserting, removing or modifying portions of code within the executable code unit; a rewrite manager having executable instructions configured to find the one or more custom rewrite attributes requesting the one or more code rewriters, to access the one or more code rewriters and to execute the one or more code rewriters against the code unit, generating a rewritten executable code unit (106, 102); characterised in that: a first digital signature associated with the code unit; and a set of second digital signatures, each second digital signature associated with a specific rewriter from the one or more code rewriters; wherein the rewrite manager is further configured to determine if the executable code unit is trusted based on the first digital signature, determine if each rewriter from the one or more code rewriters is trusted based on a corresponding second digital signature from the set of second digital signatures, and execute the identified one or more code rewriters against the code unit only if both the code unit and each rewriter from the identified one or more code rewriters are trusted. an executable code unit (102) having executable instructions, wherein the executable code unit is compiled from a source program that includes rewrite custom attributes that request one or more code rewriters, wherein the rewrite custom attributes are passed through into metadata of the executable code unit; the one or more code rewriters configured to rewrite the executable code unit by implementing a transformation of the executable code unit, the transformation comprising inserting, removing or modifying portions of code within the executable code unit; a rewrite manager having executable instructions configured to find the one or more custom rewrite attributes requesting the one or more code rewriters, to access the one or more code rewriters and to execute the one or more code rewriters against the code unit, generating a rewritten executable code unit (106, 102); characterised in that: a first digital signature associated with the code unit; and a set of second digital signatures, each second digital signature associated with a specific rewriter from the one or more code rewriters; a first digital signature associated with the code unit; and a set of second digital signatures, each second digital signature associated with a specific rewriter from the one or more code rewriters;
A method for providing flammability protection to plastic optical fiber cable, wherein the plastic optical fiber cable comprises a plastic optical fiber optically coupled to a star coupler (6a, 6b) and a jacket that ensheathes the plastic optical fiber, wherein the jacket is disposed adjacent to the star coupler (6a, 6b), and wherein a protection tube ensheathes the jacket of the plastic optical fiber cable in an area adjacent to the star coupler (6a, 6b), the method comprising: cutting a specified length of tubing made of flame-resistant material to form a protection tube; sliding the protection tube onto a plastic optical fiber cable; sliding a connector onto one end of the plastic optical fiber cable; attaching the connector to the one end of the plastic optical fiber cable; and the method further comprising optically coupling another end of the plastic optical fiber cable to a star coupler. cutting a specified length of tubing made of flame-resistant material to form a protection tube; sliding the protection tube onto a plastic optical fiber cable; sliding a connector onto one end of the plastic optical fiber cable; attaching the connector to the one end of the plastic optical fiber cable; and the method further comprising optically coupling another end of the plastic optical fiber cable to a star coupler.
A method for controlling an unmanned aerial vehicle, wherein the method is performed by a control device, and the method comprises: acquiring (301, 401) a first setting instruction corresponding to a flight area (41, 43, 45) of the unmanned aerial vehicle; generating (302, 402) a flight area control parameter according to the first setting instruction; and transmitting the flight area control parameter to the unmanned aerial vehicle; wherein the unmanned aerial vehicle is configured to determine the flight area (41, 43, 45) based on the flight area control parameter and cruise within the flight area; characterized by acquiring a flight path (42, 44, 46) within the flight area (41, 43, 45) selected by a user from a pre-set flight path (42, 44, 46) library and transmitting the flight path (42, 44, 46) to the unmanned aerial vehicle by transmitting an identification of the flight path (42, 44, 46) selected by the user to the unmanned aerial vehicle so that the unmanned aerial vehicle flies on the flight path (42, 44, 46) periodically in a reciprocating manner. acquiring (301, 401) a first setting instruction corresponding to a flight area (41, 43, 45) of the unmanned aerial vehicle; generating (302, 402) a flight area control parameter according to the first setting instruction; and transmitting the flight area control parameter to the unmanned aerial vehicle; wherein the unmanned aerial vehicle is configured to determine the flight area (41, 43, 45) based on the flight area control parameter and cruise within the flight area; characterized by acquiring a flight path (42, 44, 46) within the flight area (41, 43, 45) selected by a user from a pre-set flight path (42, 44, 46) library and transmitting the flight path (42, 44, 46) to the unmanned aerial vehicle by transmitting an identification of the flight path (42, 44, 46) selected by the user to the unmanned aerial vehicle so that the unmanned aerial vehicle flies on the flight path (42, 44, 46) periodically in a reciprocating manner.
Turbine blade, comprising a blade body with a leading edge and a trailing edge, which body transforms via a shaft into a blade root designed for attaching the turbine blade, and comprising a platform which is arranged at the lower end of the blade body for delimiting a flow channel, wherein the platform is configured as a separate component and can be connected by form fit to the blade body, wherein the platform is composed of multiple individual platform elements (17a, b) which surround the blade body in assembled state, wherein the platform is attached to the turbine blade, characterised in that the platform or the platform elements (17a, b) is/are connected by substance bonding to the turbine blade; wherein the turbine blade or the blade shaft firstly and the platform elements (17a, b) secondly are provided with a respective groove-like recess, and these groove-like recesses are arranged opposite each other so as to form a locking channel, and this locking channel is filled with a cast filling; and wherein the locking channel is formed so as to be continuous over the periphery of the turbine blade or blade shaft.
A method for the prevention of the reduction of disulfide bond in a polypeptide expressed in a recombinant host cell, comprising, following fermentation, adding at least 150 mM phosphate to a harvest solution of the recombinant host cell, wherein the disulfide bond in the polypeptide remains non-reduced, and wherein a. the phosphate comprises a phosphate salt selected from the group consisting of calcium phosphate, sodium phosphate, and potassium phosphate or b. the phosphate comprises dry phosphate. a. the phosphate comprises a phosphate salt selected from the group consisting of calcium phosphate, sodium phosphate, and potassium phosphate or b. the phosphate comprises dry phosphate.
An automatic cell detachment device comprising: a placing board, to which a culture vessel is to be fixed; a scraper for scraping away cells adhering to an inner bottom surface of the culture vessel, the scraper being strip-shaped; a chuck including a pair of claws configured to pinch an upper part of the scraper in a thickness direction of the scraper; a lifting/lowering mechanism configured to lift and lower the chuck; a holding stand configured to hold replacement scrapers in a state where an upper part of each replacement scraper is exposed; and a moving mechanism configured to move the chuck between the holding stand and the placing board. a placing board, to which a culture vessel is to be fixed; a scraper for scraping away cells adhering to an inner bottom surface of the culture vessel, the scraper being strip-shaped; a chuck including a pair of claws configured to pinch an upper part of the scraper in a thickness direction of the scraper; a lifting/lowering mechanism configured to lift and lower the chuck; a holding stand configured to hold replacement scrapers in a state where an upper part of each replacement scraper is exposed; and a moving mechanism configured to move the chuck between the holding stand and the placing board.