mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method executed on one or more processors, the method being implemented in a social networking site for identifying one or more recipients for a communication in the social networking site comprising the steps of: receiving a target geographical location of a computing device, wherein receiving said target geographical location comprises obtaining a current location of the computing device using a geolocation service and correlating the current location to the target geographical location; identifying a vicinity based on the target geographical location; using the vicinity to identify a set of contacts associated with an account on a social networking service, the set of contacts being used to produce a contact list associated with one or more locations within the vicinity; wherein producing the contact list further includes: determining levels of affinity between members of the contact list, wherein the affinity is based at least on interactions of the members with content associated with the communication, and the frequency of the interactions; refining the contact list based at least on the determined levels of affinity between members, wherein refining membership of the contact list is further based on a social graph of a user associated with the computing device, wherein the social graph includes edges which represent the affinity of the members of the contact list; and sending a communication to members of the refined contact list, the communication relating to the target geographical location. receiving a target geographical location of a computing device, wherein receiving said target geographical location comprises obtaining a current location of the computing device using a geolocation service and correlating the current location to the target geographical location; identifying a vicinity based on the target geographical location; using the vicinity to identify a set of contacts associated with an account on a social networking service, the set of contacts being used to produce a contact list associated with one or more locations within the vicinity; wherein producing the contact list further includes: determining levels of affinity between members of the contact list, wherein the affinity is based at least on interactions of the members with content associated with the communication, and the frequency of the interactions; refining the contact list based at least on the determined levels of affinity between members, wherein refining membership of the contact list is further based on a social graph of a user associated with the computing device, wherein the social graph includes edges which represent the affinity of the members of the contact list; and sending a communication to members of the refined contact list, the communication relating to the target geographical location.
A field device configured to send and receive data over an industrial process network, the field device comprising: a processor; and a communications unit communicatively connected to the industrial process network, the communications unit configured to send and receive the data over the industrial process network via a first communications protocol at a first data rate and connected to communicate with the processor via a second communications protocol at a second data rate that is greater than the first data rate, wherein the communications unit comprises: a first receive buffer configured to store a first message object corresponding to a first message received by the communications unit over the industrial process network, the first message object including the first message and information corresponding to the first message; wherein the communication unit is configured to output a message-received notification to the processor only after the first message is completely received; and the processor is configured to invoke an interrupt service routine to retrieve the first message object from the communications unit via the second communications protocol in response to the notification. a processor; and a communications unit communicatively connected to the industrial process network, the communications unit configured to send and receive the data over the industrial process network via a first communications protocol at a first data rate and connected to communicate with the processor via a second communications protocol at a second data rate that is greater than the first data rate, wherein the communications unit comprises: a first receive buffer configured to store a first message object corresponding to a first message received by the communications unit over the industrial process network, the first message object including the first message and information corresponding to the first message; wherein the communication unit is configured to output a message-received notification to the processor only after the first message is completely received; and the processor is configured to invoke an interrupt service routine to retrieve the first message object from the communications unit via the second communications protocol in response to the notification. a first receive buffer configured to store a first message object corresponding to a first message received by the communications unit over the industrial process network, the first message object including the first message and information corresponding to the first message; wherein the communication unit is configured to output a message-received notification to the processor only after the first message is completely received; and the processor is configured to invoke an interrupt service routine to retrieve the first message object from the communications unit via the second communications protocol in response to the notification.
Method to produce a window surround for a vehicle, wherein the window surround comprises a first component made of a hard first material and a second component made of a weak second material, wherein the first component constitutes a circumferential support frame for holding a window glass, wherein the second component constitutes a circumferential sealing element, wherein the first and second component (1,2) are produced by multi-component injection molding, wherein after injection molding of the first component onto the window glass, the second component is molded over the first component, wherein a radial slot which extends over the whole height of the first component is formed in the first component, wherein the radial slot extends radially over at least 50% of the width of the first component in the region of the slot and wherein at least one border of the second component is constituted by a front side of the second component that is arranged on top of the first component, wherein a rip is formed on the top surface of the first component, right before the front side of the second component and extending along the border of the second component lying on top of the first component.
An isolated population of long-lived human memory CD8+ T cells that has high surface expression of CD161 and IL-18Rα, wherein the population (a) proliferates in response to IL-7, IL-15 or both, (b) rapidly effluxes Rh123 and (c) comprises central memory T cells and/or effector memory T cells.
Valve drive with a snap-action function, comprising 1.1 a rotary drive input; 1.2 a threaded spindle which is connected to the rotary drive input or is formed by way of it; 1.3 a slide which is in threaded engagement with the threaded spindle, in order to configure a screw thread, 1.4 the slide being connected or being connectable mechanically to a valve body and being movable in the direction of a longitudinal axis; 1.5 a bearing housing being provided, in which the threaded spindle is mounted rotatably about the longitudinal axis and in a stationary manner in the direction of the longitudinal axis; and 1.6 the bearing housing being held, by means of a releasable locking device counter to the prestressing force of a snap-action spring of the valve drive, against a displacement of the entire bearing housing together with the threaded spindle mounted therein in the direction of the longitudinal axis; characterized in that the locking device comprises at least one hook-shaped bar which is movable in the radial direction with respect to the bearing housing in such a way that it engages in a positively locking manner into the bearing housing in a first position, the locking position, and cancels the engagement into the bearing housing in a second position, the snap-action position, in order to move the bearing housing loaded by way of the prestressing force of the snap-action spring in the direction of the longitudinal axis. 1.1 a rotary drive input; 1.2 a threaded spindle which is connected to the rotary drive input or is formed by way of it; 1.3 a slide which is in threaded engagement with the threaded spindle, in order to configure a screw thread, 1.4 the slide being connected or being connectable mechanically to a valve body and being movable in the direction of a longitudinal axis; 1.5 a bearing housing being provided, in which the threaded spindle is mounted rotatably about the longitudinal axis and in a stationary manner in the direction of the longitudinal axis; and 1.6 the bearing housing being held, by means of a releasable locking device counter to the prestressing force of a snap-action spring of the valve drive, against a displacement of the entire bearing housing together with the threaded spindle mounted therein in the direction of the longitudinal axis;
A processing unit in a mobile station apparatus for performing random access to a base station apparatus, the mobile station apparatus is adapted to receive notification of a number to be used for specifying a signature selected by the base station apparatus from any signature group as a signature to be used for random access that the mobile station apparatus performs at a time of handover, wherein the processing unit is adapted to specify according to the notification whether or not a type of the selected signature is for handover, and to judge necessity of a message used to transmit a message of handover completion and contention resolution processing in random access processing according to whether or not the signature is for handover, the message used to transmit a message of handover completion and the contention resolution processing in the random access processing is not necessary when the selected signature is a signature for handover, and the message used to transmit a message of handover completion and the contention resolution processing in the random access processing is necessary when the selected signature is not a signature for handover.
A method of genotyping a plurality of nucleic acid samples, comprising measuring the fluorescence of each nucleic acid sample as a function of temperature to produce a respective raw melting curve for each respective nucleic acid sample, each respective nucleic acid sample comprising a respective nucleic acid and a molecule that binds the respective nucleic acid to form a respective fluorescently detectable complex, and clustering genotypes of the plurality of nucleic acid samples to form a plurality of clusters of melting curves, characterized in that the clustering is hierarchically achieved upon assigning a minimum distance between each pair of melting curves in distinct clusters, wherein the number of clusters is determined automatically by selecting a largest ratio of distances between adjacent clusters.
Melt type high basicity flux for submerged arc welding use which is used when welding the seams of UO pipe for pipeline use having a tensile strength of a base material of 800 MPa to 1200 MPa, said melt type high basicity flux for submerged arc welding use characterized by consisting of, by mass%, CaO: 5.0% to 25.0%, MgO: 1.0% to 5.0%, Al 2 O 3: over 15.0% to 30.0%, CaF2: 30.0% to 50.0%, SiO 2: 10.0% to 20.0%, MnO: 0.5% to 15.0%, and one or both of Li 2 O and K 2 O in a total of 0.2% to 5.0%, and optionally one or both of CaCO 3 in an amount of 0.05% to 2.0% and B 2 O 3 in an amount of 0.05% to 2.0%, having a balance of unavoidable impurities, and having a basicity B obtained by formula of 1.2 to 3.2: B=6.05N[CaO]+4.0N[MgO]+5.1N[CaF 2]+4.8N[MnO]-0.2N[Al 2 O 3]-6.31N[SiO 2], wherein N[k] indicates the molar percentage of the ingredient "k". CaO: 5.0% to 25.0%, MgO: 1.0% to 5.0%, Al 2 O 3: over 15.0% to 30.0%, CaF2: 30.0% to 50.0%, SiO 2: 10.0% to 20.0%, MnO: 0.5% to 15.0%, and
A communication method, comprising: receiving (204, 304), by user equipment, first indication information from a network device, wherein the first indication information indicates a first resource; determining (205, 305)), by the user equipment, a second resource, wherein the second resource and the first resource belong to a same resource set configured by the network device, and the first resource and the second resource are used to transmit a first downlink reference signal; and receiving (206, 306), by the user equipment on a third resource, a second signal and/or channel transmitted by using a third antenna port, wherein the third antenna port has a quasi co-location QCL relationship with a second antenna port used when the first downlink reference signal is transmitted on the second resource, characterised in that the first indication information is further used to indicate a QCL type, the QCL type comprises a spatial receive end parameter, and a type of the QCL relationship is the QCL type. receiving (204, 304), by user equipment, first indication information from a network device, wherein the first indication information indicates a first resource; determining (205, 305)), by the user equipment, a second resource, wherein the second resource and the first resource belong to a same resource set configured by the network device, and the first resource and the second resource are used to transmit a first downlink reference signal; and receiving (206, 306), by the user equipment on a third resource, a second signal and/or channel transmitted by using a third antenna port, wherein the third antenna port has a quasi co-location QCL relationship with a second antenna port used when the first downlink reference signal is transmitted on the second resource, characterised in that the first indication information is further used to indicate a QCL type, the QCL type comprises a spatial receive end parameter, and a type of the QCL relationship is the QCL type.
An apparatus for agitation comprising: a base; a first movable mass, said first movable mass being movable in a first linear direction and in an opposite linear direction; two means for rotating an eccentric mass, each of said eccentric masses having a centroid, each of said means for rotating being rigidly connected to said first movable mass and being adapted to rotate its eccentric mass in a first plane that is parallel to a second plane in which said first direction and said opposite direction lie; a second movable mass, said second movable mass being movable in the same directions as said first movable mass and being movably connected to said first movable mass by a first resilient means and being movably connected to said base by a second resilient means; and a third movable mass, said third movable mass being movable in the same directions as said first movable mass and being movably connected to said second movable mass by a third resilient means; wherein each of said eccentric masses has substantially the same weight and inertial properties, and wherein the eccentric masses are capable of rotation at substantially the same rotational speed in opposite rotational directions and around axes that lie in the same plane and, during rotation, are operative to produce a first force on said first movable mass in said first direction and a second force on said first movable mass in said opposite direction and substantially no other forces on said first movable mass. a base; a first movable mass, said first movable mass being movable in a first linear direction and in an opposite linear direction; two means for rotating an eccentric mass, each of said eccentric masses having a centroid, each of said means for rotating being rigidly connected to said first movable mass and being adapted to rotate its eccentric mass in a first plane that is parallel to a second plane in which said first direction and said opposite direction lie; a second movable mass, said second movable mass being movable in the same directions as said first movable mass and being movably connected to said first movable mass by a first resilient means and being movably connected to said base by a second resilient means; and a third movable mass, said third movable mass being movable in the same directions as said first movable mass and being movably connected to said second movable mass by a third resilient means; wherein each of said eccentric masses has substantially the same weight and inertial properties, and wherein the eccentric masses are capable of rotation at substantially the same rotational speed in opposite rotational directions and around axes that lie in the same plane and, during rotation, are operative to produce a first force on said first movable mass in said first direction and a second force on said first movable mass in said opposite direction and substantially no other forces on said first movable mass.
Propylene copolymer composition comprising (a) a propylene copolymer having a comonomer content of at least 1.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, and (b) a propylene copolymer having a comonomer content of 4.0 to 20.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, wherein further (i) the comonomer content in the propylene copolymer is lower compared to the comonomer content in the propylene copolymer, (ii) the propylene copolymer composition has a comonomer content of 2.0 to 10.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, (iii) the weight ratio of the propylene copolymer to the propylene copolymer is in the range of 20/80 to 80/20. (a) a propylene copolymer having a comonomer content of at least 1.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, and (b) a propylene copolymer having a comonomer content of 4.0 to 20.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, (i) the comonomer content in the propylene copolymer is lower compared to the comonomer content in the propylene copolymer, (ii) the propylene copolymer composition has a comonomer content of 2.0 to 10.0 wt.-%, the comonomers are C 5 to C 12 α-olefins, (iii) the weight ratio of the propylene copolymer to the propylene copolymer is in the range of 20/80 to 80/20.
A gas turbine engine, comprising: a compressor section and a turbine section, said turbine section having at least one turbine rotor having a radially extending turbine blade (102, 202) and being rotatable about an axis of rotation, and at least one turbine vane (104, 204); a blade outer air seal (106, 206) positioned radially outwardly of a radially outer tip of the turbine blade (102, 202); and a structure (112, 212) mounting the blade outer air seal (106, 206) and providing a platform (116, 216) of the at least one turbine vane (104, 204), wherein the structure (112, 212) has a first support member configured to engage a first axial side of the blade outer air seal (106, 206) and a second support member configured to engage a second axial side of the blade outer air seal (106, 206), wherein an attachment member extends radially outward from the structure (112, 212) at a common axial position with the second support member, wherein the structure (112, 212) is a unitary structure that extends circumferentially about the axis of rotation, and a cooling air port extends through the structure (112, 212) between a blade outer air seal chamber and a vane chamber (136, 236), wherein the vane chamber (136, 236) is formed between the vane platform (116, 216) and an engine static structure, and the blade outer air seal chamber is formed between the blade outer air seal (106, 206) and the structure (112, 212), and characterised in that the cooling air port is configured to deliver cooling air from the blade outer air seal chamber to the vane chamber (136, 236). a compressor section and a turbine section, said turbine section having at least one turbine rotor having a radially extending turbine blade (102, 202) and being rotatable about an axis of rotation, and at least one turbine vane (104, 204); a blade outer air seal (106, 206) positioned radially outwardly of a radially outer tip of the turbine blade (102, 202); and a structure (112, 212) mounting the blade outer air seal (106, 206) and providing a platform (116, 216) of the at least one turbine vane (104, 204), wherein the structure (112, 212) has a first support member configured to engage a first axial side of the blade outer air seal (106, 206) and a second support member configured to engage a second axial side of the blade outer air seal (106, 206), wherein an attachment member extends radially outward from the structure (112, 212) at a common axial position with the second support member, wherein the structure (112, 212) is a unitary structure that extends circumferentially about the axis of rotation, and a cooling air port extends through the structure (112, 212) between a blade outer air seal chamber and a vane chamber (136, 236), wherein the vane chamber (136, 236) is formed between the vane platform (116, 216) and an engine static structure, and the blade outer air seal chamber is formed between the blade outer air seal (106, 206) and the structure (112, 212), and characterised in that the cooling air port is configured to deliver cooling air from the blade outer air seal chamber to the vane chamber (136, 236).
Device for attaching to a robot, - having a gripper module, wherein the gripper module is configured to hold an object, and - having an interface configured to mechanically attach the device to a robot, - having a drive configured to move the gripper module from an extended position into a retracted position, and - having an outer shell whose dimensions are designed for - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position. - having a gripper module, wherein the gripper module is configured to hold an object, and - having an interface configured to mechanically attach the device to a robot, - having a drive configured to move the gripper module from an extended position into a retracted position, and - having an outer shell whose dimensions are designed for - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position. - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position.