mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a service provider computer from a user device, a request to access an account, the request including a device identifier and login credentials; determining, by the service provider computer, whether the account is in a high-risk state or a low-risk state; upon determining that the account is in a low-risk state, and upon determining that the login credentials are valid: generating a verification cookie from the device identifier, wherein the verification cookie is unique to the user device and the account and comprises an obscured version of the device identifier and a creation date of the verification cookie; providing the verification cookie to the user device for storage in a memory of the user device; and providing access to the account via the user device; and upon determining that the account is in a high-risk state, and upon determining that the login credentials are valid: retrieving the verification cookie from the memory of the user device; determining whether the verification cookie is valid based on the obscured version of the device identifier and the creation date; and providing access to the account via the user device only if the verification cookie is valid. receiving, at a service provider computer from a user device, a request to access an account, the request including a device identifier and login credentials; determining, by the service provider computer, whether the account is in a high-risk state or a low-risk state; upon determining that the account is in a low-risk state, and upon determining that the login credentials are valid: generating a verification cookie from the device identifier, wherein the verification cookie is unique to the user device and the account and comprises an obscured version of the device identifier and a creation date of the verification cookie; providing the verification cookie to the user device for storage in a memory of the user device; and providing access to the account via the user device; and generating a verification cookie from the device identifier, wherein the verification cookie is unique to the user device and the account and comprises an obscured version of the device identifier and a creation date of the verification cookie; providing the verification cookie to the user device for storage in a memory of the user device; and providing access to the account via the user device; and upon determining that the account is in a high-risk state, and upon determining that the login credentials are valid: retrieving the verification cookie from the memory of the user device; determining whether the verification cookie is valid based on the obscured version of the device identifier and the creation date; and providing access to the account via the user device only if the verification cookie is valid. retrieving the verification cookie from the memory of the user device; determining whether the verification cookie is valid based on the obscured version of the device identifier and the creation date; and providing access to the account via the user device only if the verification cookie is valid.
An apparatus comprising: a first processing element, comprising: a memory device comprising: a global address space to store globally shared data; and a private address space to store data items local to the first processing element; characterized by an agent configured to receive control information from a second processing element indicating data availability, to write data to the shared global address space as part of a data transfer, to update a corresponding synchronization event object upon completion of the data transfer, and to generate a completion event indicating the first processing element has been synchronized with the second processing element. a memory device comprising: a global address space to store globally shared data; and a private address space to store data items local to the first processing element; a global address space to store globally shared data; and a private address space to store data items local to the first processing element; characterized by an agent configured to receive control information from a second processing element indicating data availability, to write data to the shared global address space as part of a data transfer, to update a corresponding synchronization event object upon completion of the data transfer, and to generate a completion event indicating the first processing element has been synchronized with the second processing element.
A vehicle condenser having a substantially parallel epipedic shape and comprising stacked plates (40, 41, 42, 48; 40', 41', 42', 48'), which are parallel with a substantially vertical plane (p) and define alternate coolant chambers and refrigerant chambers between each other, wherein the vehicle condenser is divided into three consecutive groups of refrigerant chambers, of which a first group of refrigerant chambers is for precooling of a refrigerant in a substantially gaseous state, a second group of refrigerant chambers is for condensing of the refrigerant from a substantially gaseous state to a substantially liquid state, and a third group of refrigerant chambers is for sub cooling of the refrigerant in a substantially liquid state, wherein each group of refrigerant chambers defines at least one refrigerant pass, in which refrigerant passes in a principal direction of flow through refrigerant chambers between opposing sides of the vehicle condenser, characterized in at least one combination, on one side of the vehicle condenser, of a larger refrigerant outlet (65; 69), that leads a main flow of refrigerant from one group of refrigerant chambers (20; 21) to a larger refrigerant inlet (68; 72) of a following group of refrigerant chambers (21; 22), and, substantially vertically opposite to said larger refrigerant outlet (65; 69), a smaller refrigerant outlet (52; 54), that leads a residual flow of refrigerant from said one group of refrigerant chambers (20; 21) to a smaller refrigerant inlet (53; 55) of said following group of refrigerant chambers (21; 22).
A method of separating a protein of interest from a cell culture solution containing said protein using dual stage tangential-flow ultrafiltration, wherein said dual stage TFF comprises a first TFF unit operation and a second TFF unit operation, wherein said first TFF unit operation filters a first product stream containing said protein using a first ultrafiltration membrane having a cut-off value such that said protein is recovered in the retentate of the first TFF unit operation; and said second TFF unit operation filters a second product stream containing said protein using a second ultrafiltration membrane having a cut-off value such that said protein is recovered in the permeate of the second TFF unit operation; and wherein said first or said second product stream is a cell culture supernatant. said first TFF unit operation filters a first product stream containing said protein using a first ultrafiltration membrane having a cut-off value such that said protein is recovered in the retentate of the first TFF unit operation; and said second TFF unit operation filters a second product stream containing said protein using a second ultrafiltration membrane having a cut-off value such that said protein is recovered in the permeate of the second TFF unit operation;
A method for graphics processing with a graphics processing system having a processing unit, comprising: determining data representing one or more foveation regions of a screen space of a display device; determining vertex density data representing a first density distribution of vertices for the one or more foveation regions of the screen space and a second density distribution of vertices for one or more remaining regions of the screen space, wherein the first density is higher than the second density; performing a tessellation of a first set of polygons for one or more objects in a scene in a virtual space projected onto the screen space of the display device to produce a second set of polygons for the one or more objects represented by tessellated vertex data representing a set of tessellated vertices, wherein in the one or more foveation regions of the screen space the set of tessellated vertices is characterized by the first density distribution of vertices and in the one or more remaining regions of the screen space the set of tessellated vertices is characterized by the second density distribution of vertices; and performing subsequent graphics operations on the second set of polygons. determining data representing one or more foveation regions of a screen space of a display device; determining vertex density data representing a first density distribution of vertices for the one or more foveation regions of the screen space and a second density distribution of vertices for one or more remaining regions of the screen space, wherein the first density is higher than the second density; performing a tessellation of a first set of polygons for one or more objects in a scene in a virtual space projected onto the screen space of the display device to produce a second set of polygons for the one or more objects represented by tessellated vertex data representing a set of tessellated vertices, wherein in the one or more foveation regions of the screen space the set of tessellated vertices is characterized by the first density distribution of vertices and in the one or more remaining regions of the screen space the set of tessellated vertices is characterized by the second density distribution of vertices; and performing subsequent graphics operations on the second set of polygons.
A magnetic field formation device comprising: a power supplying resonator including coil pieces (1221, 1222, 1223) configured to generate a variable magnetic field; and a power-supplying coil disposed to generate an induced current for at least one of the coil pieces (1221, 1222, 1223), coil ends of two or more of the coil pieces (1221, 1222, 1223) being connected to each other; a connection switcher which is provided between the coil pieces (1221, 1222, 1223) having the coil ends connected to one another and configured to switch the coil ends of the coil pieces (1221, 1222, 1223) between a forward connection state and a reverse connection state; characterized in that the magnetic field formation device further comprises a switching controller configured to control the connection switcher to switch the coil ends between the forward connection state and the reverse connection state to change a coil winding direction alternatively and repeatedly during generation of said variable magnetic field. a power supplying resonator including coil pieces (1221, 1222, 1223) configured to generate a variable magnetic field; and a power-supplying coil disposed to generate an induced current for at least one of the coil pieces (1221, 1222, 1223), coil ends of two or more of the coil pieces (1221, 1222, 1223) being connected to each other; a connection switcher which is provided between the coil pieces (1221, 1222, 1223) having the coil ends connected to one another and configured to switch the coil ends of the coil pieces (1221, 1222, 1223) between a forward connection state and a reverse connection state; characterized in that the magnetic field formation device further comprises a switching controller configured to control the connection switcher to switch the coil ends between the forward connection state and the reverse connection state to change a coil winding direction alternatively and repeatedly during generation of said variable magnetic field.
Sealing arrangement for sealing a frame part with respect to a battery cell inserted into a receptacle of the frame part, the sealing arrangement having a sealing element supported against the frame part, characterized in that the sealing element comprises a centering bead, in the region of which the sealing element bears against a supporting surface of the frame part, and a sealing lip projecting freely beyond the centering bead into the receptacle.
A method to improve skin wrinkles by administering into the skin an ingredient modulating the release of a neurotransmitter comprised in a microneedle, wherein the microneedle is soluble in the skin, and wherein the ingredient modulating the release of a neurotransmitter is selected from the group consisting of kaempferol, myricetin, ampelopsin, hesperidin, copper gluconate, zinc gluconate, and magnesium gluconate.
A method for distributing Sigtran connections among signal transfer point, STP, message processors (102 1 - 102 N), the method comprising: providing a connection load balancer as a front end to plural message processors of an STP; publishing, by the connection load balancer, an Internet protocol, IP, address to SS7 peers; initializing the message processors of the STP to listen on the IP address published by the connection load balancer; receiving, at the connection load balancer, a Sigtran message addressed to the IP address; determining, by the connection load balancer, that the Sigtran message is an initial message for a Sigtran connection; determining, by the connection load balancer, that the Sigtran message is for a Sigtran connection to which one of the message processors has not been assigned; and assigning one of the message processors to the Sigtran connection for which the initial message is intended to initiate establishment using a load balancing algorithm. providing a connection load balancer as a front end to plural message processors of an STP; publishing, by the connection load balancer, an Internet protocol, IP, address to SS7 peers; initializing the message processors of the STP to listen on the IP address published by the connection load balancer; receiving, at the connection load balancer, a Sigtran message addressed to the IP address; determining, by the connection load balancer, that the Sigtran message is an initial message for a Sigtran connection; determining, by the connection load balancer, that the Sigtran message is for a Sigtran connection to which one of the message processors has not been assigned; and assigning one of the message processors to the Sigtran connection for which the initial message is intended to initiate establishment using a load balancing algorithm.
A manufacturing process of a Ni based superalloy softening material comprising: a step for preparing raw materials of the Ni based superalloy to subjected to a softening step at following step, a step for softening the raw materials of the Ni based superalloy and improving workability, wherein the step for softening the Ni based superalloy includes a first step for hot-forging the Ni based superalloy at a temperature below the solvus of the gamma prime phase; and a second step for precipitating the gamma prime phase that is incoherent with a gamma phase that is a matrix and is precipitating on the grain boundary of the gamma phase by 20 vol% or more by slow cooling at 100°C/h or less from a temperature below the solvus of the gamma prime phase and increasing the amount of the gamma prime incoherent phase, wherein the solvus of the gamma prime phase is 1,050°C or above. a step for preparing raw materials of the Ni based superalloy to subjected to a softening step at following step, a step for softening the raw materials of the Ni based superalloy and improving workability, wherein the step for softening the Ni based superalloy includes a first step for hot-forging the Ni based superalloy at a temperature below the solvus of the gamma prime phase; and a second step for precipitating the gamma prime phase that is incoherent with a gamma phase that is a matrix and is precipitating on the grain boundary of the gamma phase by 20 vol% or more by slow cooling at 100°C/h or less from a temperature below the solvus of the gamma prime phase and increasing the amount of the gamma prime incoherent phase, wherein the solvus of the gamma prime phase is 1,050°C or above.
A semiconductor package comprising: a semiconductor chip on a substrate; a voltage measurement circuit; and a thermoelectric module, wherein the thermoelectric module is separated from the voltage measurement circuit and configured to convert heat released from the semiconductor chip into an auxiliary power, wherein the voltage measurement circuit is configured to measure an external voltage to be input into the semiconductor chip and configured to control the thermoelectric module to apply the auxiliary power to the semiconductor chip in response to a change in the external voltage, and characterized in that the thermoelectric module includes a first metal film, a second metal film, and a plurality of p-type semiconductors and a plurality of n-type semiconductors alternately arranged to have a loop shape surrounding sidewalls of the semiconductor chip, wherein one of the plurality of p-type semiconductors is connected to the first metal film and one of the plurality of n-type semiconductors is connected to the second metal film such that an operating current providing the auxiliary power flows through the first and second metal films (221, 222) in accordance with a temperature variation (ΔT) between a first providing temperature provided to the first metal film and a second providing temperature provided to the second metal film. a semiconductor chip on a substrate; a voltage measurement circuit; and a thermoelectric module, wherein the thermoelectric module is separated from the voltage measurement circuit and configured to convert heat released from the semiconductor chip into an auxiliary power, wherein the voltage measurement circuit is configured to measure an external voltage to be input into the semiconductor chip and configured to control the thermoelectric module to apply the auxiliary power to the semiconductor chip in response to a change in the external voltage, and characterized in that the thermoelectric module includes a first metal film, a second metal film, and a plurality of p-type semiconductors and a plurality of n-type semiconductors alternately arranged to have a loop shape surrounding sidewalls of the semiconductor chip, wherein one of the plurality of p-type semiconductors is connected to the first metal film and one of the plurality of n-type semiconductors is connected to the second metal film such that an operating current providing the auxiliary power flows through the first and second metal films (221, 222) in accordance with a temperature variation (ΔT) between a first providing temperature provided to the first metal film and a second providing temperature provided to the second metal film.
A method of producing a color changeable polymeric composite comprising: coating organic polymer particles having a melting point between 25°C and 200°C with at least one color changeable indicator to form color changeable indicator particles; mixing the color changeable indicator particles with a second organic polymer having a melting point between 25°C and 200°C to form a combined powder; and extruding the combined powder; wherein the color changeable indicator particles become substantially homogenously dispersed within the at least one organic polymer. coating organic polymer particles having a melting point between 25°C and 200°C with at least one color changeable indicator to form color changeable indicator particles; mixing the color changeable indicator particles with a second organic polymer having a melting point between 25°C and 200°C to form a combined powder; and extruding the combined powder; wherein the color changeable indicator particles become substantially homogenously dispersed within the at least one organic polymer.
A terminal-formed wire, comprising: a covered wire obtained by covering an outer circumference of a core wire part including a plurality of element wires (13, 15) with a covering part; and a terminal part provided at a terminal of the covered wire and terminal-formed with the core wire part exposed from the covering part and with the core wire part having a connection hole, wherein, at the terminal part, the plurality of element wires (13, 15) of the core wire part is divided into two; characterized in that leading ends of the divided plurality of the element wires (13, 15) are folded back toward a root part in different directions from each other to cross each other to form the connection hole, wherein the root part is the core wire part side adjacent to the covering part, and wherein the plurality of element wires (13, 15) is bonded with each other and solidified all over the element wires (13, 15). a covered wire obtained by covering an outer circumference of a core wire part including a plurality of element wires (13, 15) with a covering part; and a terminal part provided at a terminal of the covered wire and terminal-formed with the core wire part exposed from the covering part and with the core wire part having a connection hole, wherein, at the terminal part, the plurality of element wires (13, 15) of the core wire part is divided into two; characterized in that leading ends of the divided plurality of the element wires (13, 15) are folded back toward a root part in different directions from each other to cross each other to form the connection hole, wherein the root part is the core wire part side adjacent to the covering part, and wherein the plurality of element wires (13, 15) is bonded with each other and solidified all over the element wires (13, 15).
Non lethal projectile launchable by means of a fire arm, the projectile being fitted to the barrel of the fire arm and being launched by firing a conventional bullet, the projectile comprising a body which body contains a bullet trap, characterized in that the bullet trap (15,22) comprises a plug, the plug being shiftable in a longitudinal direction with regard to the body along a distance (14,21; 14), overcoming frictional forces and being plastically deformable by deformation forces, to the effect that the bullet trap (15,22) consumes a considerable fraction of the kinetic energy of the bullet and converts a small fraction thereof in kinetic energy of the non-lethal projectile, and that part of the projectile is insertable in the muzzle of the barrel.
Electrochromic glazing comprising an electrochemical/electrically controllable device having variable optical and/or energetic properties, comprising a first carrier substrate provided with a lower electrically conductive layer (2; TC1) on which is deposited a first electrochromic stack comprising electrically active layers (EC1, EC2) separated by an electrolyte function layer, a second carrier substrate (S1') provided with an lower electrically conductive layer (2'; TC1) on which a second electrochromic stack comprising electrically active layers separated by an electrolyte function layer is deposited, first and second electrochromics stacks (3, 3') being "all solid" electrochromics stacks functionning, each on at least a portion of their surface, optically in series and are separated by an electrically insulating means which is selected from the family of organic materials, the glazing having in particular a variable optical and/or energetic transmission and/or reflection, with the substrate or at least a part of the transparent or partially transparent substrate(s), characterized in that the insulating mean is a laminating insert, and each of the faces of the laminating insert being in contact with an upper electrically conductive layer (4, 4'; TC2) deposited respectively on the first and the second electrochromic stack (3, 3'), and, in that the electrolyte is an inorganic material layer.