mhurhangee/ep-ind-claims huggingface dataset:
A time-base conversion method for obtaining a target time stamp on a target time-base from an originating time stamp on an originating time-base of a system comprising the steps of: a. regularly taking samples simultaneously from transport streams having the originating time-base and target time-base, respectively; b. storing a current sample and an immediately preceding sample for each of the originating time-base and target time-base, respectively; in response to receiving an originating timestamp between the current and immediately preceding sample times of the originating time-base: c. determining a first difference between the current sample and the immediately preceding sample for the originating time-base and a second difference between the current sample and the immediately preceding sample for the target time-base, respectively (54, 55); d. adding half the first difference to the current sample of the originating time base and half the second difference to the current sample of the target time-base if the current sample of the originating time base is less than the originating time-stamp and subtracting half the first difference from the current sample of the originating time base and half the second difference from the current sample of the target time-base if the current sample of the originating time base is more than the originating time-stamp (56, 57, 58); e. halving the first difference and the second difference; f. iterating steps d. and e. until the first difference or the second difference is less that a predetermined value or a fixed number of iterations (60, 61); and g. outputting the iterated current sample of the target time-base as the target time-stamp. a. regularly taking samples simultaneously from transport streams having the originating time-base and target time-base, respectively; b. storing a current sample and an immediately preceding sample for each of the originating time-base and target time-base, respectively; c. determining a first difference between the current sample and the immediately preceding sample for the originating time-base and a second difference between the current sample and the immediately preceding sample for the target time-base, respectively (54, 55); d. adding half the first difference to the current sample of the originating time base and half the second difference to the current sample of the target time-base if the current sample of the originating time base is less than the originating time-stamp and subtracting half the first difference from the current sample of the originating time base and half the second difference from the current sample of the target time-base if the current sample of the originating time base is more than the originating time-stamp (56, 57, 58); e. halving the first difference and the second difference; f. iterating steps d. and e. until the first difference or the second difference is less that a predetermined value or a fixed number of iterations (60, 61); and g. outputting the iterated current sample of the target time-base as the target time-stamp.
A method for producing a wiping product comprising: forming a nonwoven web from an aqueous suspension of fibers, the aqueous suspension of fibers comprising cellulosic fibers combined with synthetic staple fibers, the synthetic staple fibers comprising a thermoplastic polymer; hydraulically entangling the web formed from the aqueous suspension of fibers to form a hydroentangled web having a first side and a second side; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the first side of the web; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the second side of the web; and through-air drying the web to form a wiping product, the dried web containing the cellulosic fibers in an amount from 60% to 80% by weight; wherein the wiping product does not contain any continuous filaments. forming a nonwoven web from an aqueous suspension of fibers, the aqueous suspension of fibers comprising cellulosic fibers combined with synthetic staple fibers, the synthetic staple fibers comprising a thermoplastic polymer; hydraulically entangling the web formed from the aqueous suspension of fibers to form a hydroentangled web having a first side and a second side; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the first side of the web; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the second side of the web; and through-air drying the web to form a wiping product, the dried web containing the cellulosic fibers in an amount from 60% to 80% by weight; wherein the wiping product does not contain any continuous filaments.
A preparation method of a low-viscosity graphene oxide slurry, wherein graphene oxide is mixed with water, dispersed and ultramicro-refined to reduce an average flake diameter of the graphene oxide, so that the low-viscosity graphene oxide slurry is obtained; the method of ultramicro-refining comprises applying pressure to a mixture of the graphene oxide and the water, enabling the mixture to pass through a slit, subjecting the mixture to high-pressure shearing and high-speed impacting in a process of passing through the slit, and generating a strong cavitation action due to instantaneous release of pressure energy after passing through the slit; wherein the pressure applied in ultramicro-refining is 50-250 MPa; wherein a linear velocity of the dispersing is 2-20 m/s; wherein the viscosity of the graphene oxide slurry after ultramicro-refining is 10000-50000 mPa·s.
A lens body alignment system comprising: opposing end effectors configured to control a position of a target lens body with respect to a first plane by frictionally engaging, with each of the end effectors, a corresponding receptacle of at least two receptacles on respective opposite faces of the lens body on opposite ends of an axis of rotation (A θ) that extends between the end effectors, wherein: each of the opposing end effectors comprises at least one distal engagement surface defined by a conical frustum and configured to frictionally contact the corresponding receptacle within a respective portion of each of at least two contact regions that, during the engagement, lie on opposite sides of the axis of rotation (A θ) that extends between the end effectors, and the opposing end effectors are configured to be selectively operated towards each other to frictionally contact the contact regions of the corresponding receptacles of the lens body, such that a predetermined minimum net moment is determined by the frictional engagement, such that, in response to application to the lens body of at least the predetermined minimum net moment, the lens body is rotatable relative to the end effectors about the axis of rotation. opposing end effectors configured to control a position of a target lens body with respect to a first plane by frictionally engaging, with each of the end effectors, a corresponding receptacle of at least two receptacles on respective opposite faces of the lens body on opposite ends of an axis of rotation (A θ) that extends between the end effectors, wherein: each of the opposing end effectors comprises at least one distal engagement surface defined by a conical frustum and configured to frictionally contact the corresponding receptacle within a respective portion of each of at least two contact regions that, during the engagement, lie on opposite sides of the axis of rotation (A θ) that extends between the end effectors, and the opposing end effectors are configured to be selectively operated towards each other to frictionally contact the contact regions of the corresponding receptacles of the lens body, such that a predetermined minimum net moment is determined by the frictional engagement, each of the opposing end effectors comprises at least one distal engagement surface defined by a conical frustum and configured to frictionally contact the corresponding receptacle within a respective portion of each of at least two contact regions that, during the engagement, lie on opposite sides of the axis of rotation (A θ) that extends between the end effectors, and the opposing end effectors are configured to be selectively operated towards each other to frictionally contact the contact regions of the corresponding receptacles of the lens body, such that a predetermined minimum net moment is determined by the frictional engagement, such that, in response to application to the lens body of at least the predetermined minimum net moment, the lens body is rotatable relative to the end effectors about the axis of rotation.
A communication method, comprising: receiving, by an application function network element, a notification message from a session management function network element, wherein the notification message comprises a media access control, MAC, address of a terminal and first route information of an interface between a user plane function network element and a data network; wherein the MAC address is bound to a session, and the interface corresponds to the session; determining, by the application function network element, a transmission path of downlink data based on the first route information; wherein the transmission path is a path from the data network to the user plane function network element. receiving, by an application function network element, a notification message from a session management function network element, wherein the notification message comprises a media access control, MAC, address of a terminal and first route information of an interface between a user plane function network element and a data network; wherein the MAC address is bound to a session, and the interface corresponds to the session; determining, by the application function network element, a transmission path of downlink data based on the first route information; wherein the transmission path is a path from the data network to the user plane function network element.
A deposition reactor comprising: an in-feed part that defines an expansion space which is configured to lead reactants as a top to bottom flow from a plasma source towards a reaction chamber (335, 1535), the expansion space widening towards the reaction chamber; and a lifting mechanism (250, 850) for loading at least one substrate (360, 1560) to the reaction chamber (335, 1535) from the top side of the reaction chamber, and the deposition reactor being configured to deposit material on said at least one substrate (360, 1560) in the reaction chamber (335, 1535) by sequential self-saturating surface reactions. an in-feed part that defines an expansion space which is configured to lead reactants as a top to bottom flow from a plasma source towards a reaction chamber (335, 1535), the expansion space widening towards the reaction chamber; and a lifting mechanism (250, 850) for loading at least one substrate (360, 1560) to the reaction chamber (335, 1535) from the top side of the reaction chamber, and the deposition reactor being configured to deposit material on said at least one substrate (360, 1560) in the reaction chamber (335, 1535) by sequential self-saturating surface reactions.
Electrode with a protective gas nozzle for a welding torch for tungsten inert gas welding, wherein the electrode comprises at least one insert composed of a material which is different from the electrode material, wherein the insert at least partly forms an arc-side surface of the electrode and the electrode comprises, on its arc-side surface, a plurality of focusing gas holes for feeding a focusing gas for focusing an arc, wherein a protective gas nozzle is provided, whereby protective gas is fed during welding, wherein the electrode projects from the protective gas nozzle and wherein the electrode is energized as an anode.
A steam cooking appliance comprising: a main body having a cavity that provides a cooking space in which a food is accommodated; a water tank separably coupled to the main body outside the cavity; and a steam supply unit disposed outside the cavity to heat water supplied from the water tank, thereby generating steam, the steam supply unit supplying the generated steam into the cooking space within the cavity, wherein the main body comprises a backguard extending upward from an upper portion of the main body and comprising a control unit, characterized in that the water tank is disposed on the backguard. a main body having a cavity that provides a cooking space in which a food is accommodated; a water tank separably coupled to the main body outside the cavity; and a steam supply unit disposed outside the cavity to heat water supplied from the water tank, thereby generating steam, the steam supply unit supplying the generated steam into the cooking space within the cavity, wherein the main body comprises a backguard extending upward from an upper portion of the main body and comprising a control unit, characterized in that the water tank is disposed on the backguard.
Kart having a frame, a front axle and a rear axle, and having an impact protection which surrounds the frame and has at least one front and one rear protective element and at least one lateral protective element (S1, S2, S3, S4) on each frame side of the kart, wherein shock-absorbing, rubber-elastic dampers are provided between the frame and the protective elements (S1, S2, S3, S4), wherein the lateral protective elements (S3, S4) are each mounted on a pivot bearing fixed to the frame so as to be pivotally adjustable about a frame vertical axis, characterized in that the pivot bearings are provided nearer the rear axle than the front axle and each comprise a bearing block fixed to the frame and a bearing pedestal pivotally adjustable relative to said bearing block, wherein the lateral protective elements (S3, S4) each engage on the associated bearing pedestal, wherein the lateral protective elements (S3, S4) each engage directly or indirectly via a front connecting protective element (S5, S6) on the front protective element and directly or indirectly via a rear connecting element (S7, S8) on the rear protective element and if applicable, wherein the lateral protective element (S3, S4) is each connected to the associated rear connecting protective element (S7, S8) via the bearing pedestal.
An arrangement of spring elements for a cushion support, comprising - a plurality of spring elements, at which between a base and a support disc spring arms are arranged in each case, wherein the spring elements are arranged lying next to one another in such a manner that the support discs of the plurality of spring elements jointly span a support area, and - connecting elements, via which the spring elements are interconnected in such a manner that the spring elements are fixed in their relative position with respect to one another, - wherein the connecting elements are formed in one piece and are integrally moulded onto the spring elements, characterized in that the support disc of the spring elements is formed in each case with a plurality of separate part support discs (6a,..., 6d), which are separated from one another via intermediate spaces, wherein the connecting elements, when viewing the support disc from above, run in the intermediate spaces and the plurality of separate part support discs (6a,..., 6d) are arranged on one or multiple spring arms which are individually assigned exclusively to the respective part support disc (6a,..., 6d). - a plurality of spring elements, at which between a base and a support disc spring arms are arranged in each case, wherein the spring elements are arranged lying next to one another in such a manner that the support discs of the plurality of spring elements jointly span a support area, and - connecting elements, via which the spring elements are interconnected in such a manner that the spring elements are fixed in their relative position with respect to one another, - wherein the connecting elements are formed in one piece and are integrally moulded onto the spring elements, characterized in that the support disc of the spring elements is formed in each case with a plurality of separate part support discs (6a,..., 6d), which are separated from one another via intermediate spaces, wherein the connecting elements, when viewing the support disc from above, run in the intermediate spaces and the plurality of separate part support discs (6a,..., 6d) are arranged on one or multiple spring arms which are individually assigned exclusively to the respective part support disc (6a,..., 6d).
A process for the reduction by hydrogenation, using molecular H 2, of a C 3 -C 70 substrate containing one or two ester or lactone functional groups into the corresponding alcohol or diol, characterized in that said process is carried out in the presence of a base and at least one complex of formula [Ru b (L') a Y 2] wherein L2 represents a C 4 -C 40 bidentate ligand wherein the coordinating groups consist of one amino or imino group and one phosphino group; L' represents a C 3 -C 70 mono-phosphine or a molecule of solvent; b is 1 and a is 1 or 2 or b is 2 and a is 0; and each Y represents, simultaneously or independently, CO, a hydrogen or halogen atom, a hydroxyl group, a BH 4 or AlH 4 group or a C 1 -C 6 alkoxy or carboxylic radical. wherein L2 represents a C 4 -C 40 bidentate ligand wherein the coordinating groups consist of one amino or imino group and one phosphino group; L' represents a C 3 -C 70 mono-phosphine or a molecule of solvent; b is 1 and a is 1 or 2 or b is 2 and a is 0; and each Y represents, simultaneously or independently, CO, a hydrogen or halogen atom, a hydroxyl group, a BH 4 or AlH 4 group or a C 1 -C 6 alkoxy or carboxylic radical.
A vehicle including a control system for controlling the vehicle, the system comprising at least one controller: a) configured to obtain (50, 60) data regarding an object detected by a rearward-facing environment sensor mounted on the vehicle, wherein the data includes at least one selected from the group comprising a position of the object and a speed of the object; b) configured to automatically adjust (74, 78) at least one configuration setting based on the data; c) configured to perform at least one automatic action when the vehicle is within a threshold distance from a lane marking based on the at least one configuration setting; and d) configured to automatically adjust the at least one configuration setting based on the data by modifying the threshold distance. a) configured to obtain (50, 60) data regarding an object detected by a rearward-facing environment sensor mounted on the vehicle, wherein the data includes at least one selected from the group comprising a position of the object and a speed of the object; b) configured to automatically adjust (74, 78) at least one configuration setting based on the data; c) configured to perform at least one automatic action when the vehicle is within a threshold distance from a lane marking based on the at least one configuration setting; and d) configured to automatically adjust the at least one configuration setting based on the data by modifying the threshold distance.
A mixed carrier, multivalent pneumococcal conjugate composition, comprising 16 different pneumococcal capsular polysaccharide-protein conjugates, wherein each pneumococcal capsular polysaccharide-protein conjugate comprises a protein carrier conjugated to a capsular polysaccharide from a different serotype of Streptococcus pneumoniae, wherein the Streptococcus pneumoniae serotypes are 1, 3, 4, 5, 6A, 6B, 7F, 9V, 12F, 14, 18C, 19A, 19F, 22F, 23F, and 33F, wherein the protein carrier is CRM197 or tetanus toxoid, wherein two of the capsular polysaccharides are conjugated to tetanus toxoid and the remaining capsular polysaccharides are conjugated to CRM197, and wherein the two capsular polysaccharides that are conjugated to tetanus toxoid are selected from the group consisting of serotypes 1, 3, and 5. wherein each pneumococcal capsular polysaccharide-protein conjugate comprises a protein carrier conjugated to a capsular polysaccharide from a different serotype of Streptococcus pneumoniae, wherein the Streptococcus pneumoniae serotypes are 1, 3, 4, 5, 6A, 6B, 7F, 9V, 12F, 14, 18C, 19A, 19F, 22F, 23F, and 33F, wherein the protein carrier is CRM197 or tetanus toxoid, wherein two of the capsular polysaccharides are conjugated to tetanus toxoid and the remaining capsular polysaccharides are conjugated to CRM197, and wherein the two capsular polysaccharides that are conjugated to tetanus toxoid are selected from the group consisting of serotypes 1, 3, and 5.
A computer-implemented method of providing secure and standalone-operable biometric authentication, comprising: capturing (600, 602) a biometric sample from a person into a biometric template at an enrollment agent; irreversibly converting the biometric template into a converted biometric template at the enrollment agent using a pre-determined irreversible conversion function; encrypting the converted biometric template using a private key that is assigned uniquely to the biometric template; storing the encrypted converted biometric template in an electronic device of the person; and authenticating the person at an authentication agent by capturing (704, 705) a new biometric sample from the person and irreversibly converting, using the same irreversible conversion function during enrollment, the new live biometric sample into a converted live biometric template, obtaining the encrypted converted biometric template from the electronic device and decrypting the encrypted converted biometric template obtained from the electronic device using a public key of the private key, and analyzing the converted biometric templates to determine if they belong to the same person. capturing (600, 602) a biometric sample from a person into a biometric template at an enrollment agent; irreversibly converting the biometric template into a converted biometric template at the enrollment agent using a pre-determined irreversible conversion function; encrypting the converted biometric template using a private key that is assigned uniquely to the biometric template; storing the encrypted converted biometric template in an electronic device of the person; and authenticating the person at an authentication agent by capturing (704, 705) a new biometric sample from the person and irreversibly converting, using the same irreversible conversion function during enrollment, the new live biometric sample into a converted live biometric template, obtaining the encrypted converted biometric template from the electronic device and decrypting the encrypted converted biometric template obtained from the electronic device using a public key of the private key, and analyzing the converted biometric templates to determine if they belong to the same person.
Brake device for a vehicle, wherein the brake device has a service brake valve which is designed to generate, in response to an actuation of an operating means, an actuation-dependent pressure at at least one service brake valve outlet, and the brake device has at least one brake actuator with a brake actuator inlet, wherein the service brake valve outlet is connectable to the brake actuator inlet by way of a pressure connection, and the pressure connection has at least a directional control valve and a check valve, characterized in that the pressure connection with the directional control valve and the check valve is designed to bypass the check valve in a first valve position of the directional control valve, such that a fluid flow from the brake actuator inlet to the service brake valve outlet can be ensured, and, in a second valve position of the directional control valve, to substantially prevent a fluid flow through the check valve from the brake actuator inlet to the service brake valve outlet.