mhurhangee/ep-ind-claims huggingface dataset:
A system (100, 300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) comprising: a processor (102, 302) configured to: determine a haptic effect and transmit a haptic signal associated with the haptic effect; an ESF controller (120, 320) in communication with the processor, the ESF controller configured to: receive the haptic signal, determine an electric ESF signal based at least in part on the haptic signal, and transmit the ESF signal; and an ESF device (118, 318, 400, 500, 600, 700, 800, 1304, 1404) in communication with the ESF controller, the ESF device comprising an ESF cell comprising a conductor coupled to an insulator, the conductor configured to receive the ESF signal thereby to induce an electric charge on the conductor for producing capacitive coupling between the conductor and objects near or touching the ESF cell; characterized in that the thickness of the insulator tapers towards the edges of the ESF cell whereby as the thickness of the insulator decreases, the strength of the capacitive coupling increases. a processor (102, 302) configured to: determine a haptic effect and transmit a haptic signal associated with the haptic effect; determine a haptic effect and transmit a haptic signal associated with the haptic effect; an ESF controller (120, 320) in communication with the processor, the ESF controller configured to: receive the haptic signal, determine an electric ESF signal based at least in part on the haptic signal, and transmit the ESF signal; and receive the haptic signal, determine an electric ESF signal based at least in part on the haptic signal, and transmit the ESF signal; and an ESF device (118, 318, 400, 500, 600, 700, 800, 1304, 1404) in communication with the ESF controller, the ESF device comprising an ESF cell comprising a conductor coupled to an insulator, the conductor configured to receive the ESF signal thereby to induce an electric charge on the conductor for producing capacitive coupling between the conductor and objects near or touching the ESF cell; characterized in that the thickness of the insulator tapers towards the edges of the ESF cell whereby as the thickness of the insulator decreases, the strength of the capacitive coupling increases.
A fabric for use on a papermaking machine, comprising: a plurality of warp yarns interwoven with a plurality of weft yarns; said plurality of warp yarns float over two or more weft yarns to form a plurality of long warp knuckles (16, 22); wherein said plurality of weft yarns weave over one or more of warp yarns to form a plurality of weft knuckles (18, 24); wherein said plurality of long warp knuckles (16, 22) and said plurality of weft knuckles (18, 24) are formed on a plurality of planes; characterized in that each long warp knuckle and its corresponding adjacent weft knuckle lying on a highest plane of said fabric are flattened to produce a co-planar L-shaped pattern (26, 28) on a surface side of the fabric. a plurality of warp yarns interwoven with a plurality of weft yarns; said plurality of warp yarns float over two or more weft yarns to form a plurality of long warp knuckles (16, 22); wherein said plurality of weft yarns weave over one or more of warp yarns to form a plurality of weft knuckles (18, 24); wherein said plurality of long warp knuckles (16, 22) and said plurality of weft knuckles (18, 24) are formed on a plurality of planes; characterized in that each long warp knuckle and its corresponding adjacent weft knuckle lying on a highest plane of said fabric are flattened to produce a co-planar L-shaped pattern (26, 28) on a surface side of the fabric.
A method for executing a plurality of data parallel threads of a graphics processing unit, GPU, kernel, the method comprising: grouping a first plurality of parallel threads into a first workgroup of a set of workgroups and grouping a second plurality of parallel threads into a second workgroup of the set of workgroups, wherein the first workgroup is assigned to a first processor core of a control processing unit, CPU, and the second workgroup is assigned to a second processor core of the CPU; associating the first workgroup with a first operating system thread configured to execute on the first processor core; mapping a memory hierarchy available to a GPU to a memory available to the CPU to enable the scheduling of a thread configured for the GPU to be scheduled on the CPU, wherein the mapping comprises setting up an automatic address translation mechanism by which a memory address included in a thread configured for the GPU is redirected to the memory associated with the CPU; and scheduling the first plurality of parallel threads within the first operating system, wherein the scheduling comprises configuring the first plurality of parallel threads to execute up to a synchronization point and configuring each of the first plurality of parallel threads to restart execution from the synchronization point after all of the first plurality of parallel threads reach the synchronization point. grouping a first plurality of parallel threads into a first workgroup of a set of workgroups and grouping a second plurality of parallel threads into a second workgroup of the set of workgroups, wherein the first workgroup is assigned to a first processor core of a control processing unit, CPU, and the second workgroup is assigned to a second processor core of the CPU; associating the first workgroup with a first operating system thread configured to execute on the first processor core; mapping a memory hierarchy available to a GPU to a memory available to the CPU to enable the scheduling of a thread configured for the GPU to be scheduled on the CPU, wherein the mapping comprises setting up an automatic address translation mechanism by which a memory address included in a thread configured for the GPU is redirected to the memory associated with the CPU; and scheduling the first plurality of parallel threads within the first operating system, wherein the scheduling comprises configuring the first plurality of parallel threads to execute up to a synchronization point and configuring each of the first plurality of parallel threads to restart execution from the synchronization point after all of the first plurality of parallel threads reach the synchronization point.
A nanopore measurement circuit, comprising: a circuit configured to detect a first voltage corresponding to an electrical measurement of a nanopore; and a component configured to compare the first voltage to a second voltage; wherein based at least in part on the comparison, a one bit indicator is determined, the one bit indicator indicates whether the first voltage indicates a change in a state of the nanopore, and in the event it is determined that the first voltage indicates a the change in the state of the nanopore, a multiple bit indicator is provided for output, wherein the one bit indicator is concatenated with a plurality of other one bit indicators corresponding to a plurality of other nanopores into the multiple bit indicator to form a bit array, and wherein detecting the first voltage includes detecting a voltage of a capacitor electrically coupled to the nanopore. a circuit configured to detect a first voltage corresponding to an electrical measurement of a nanopore; and a component configured to compare the first voltage to a second voltage; wherein based at least in part on the comparison, a one bit indicator is determined, the one bit indicator indicates whether the first voltage indicates a change in a state of the nanopore, and in the event it is determined that the first voltage indicates a the change in the state of the nanopore, a multiple bit indicator is provided for output, wherein the one bit indicator is concatenated with a plurality of other one bit indicators corresponding to a plurality of other nanopores into the multiple bit indicator to form a bit array, and wherein detecting the first voltage includes detecting a voltage of a capacitor electrically coupled to the nanopore.
A wireless handheld device comprising: a lower casing having a bottom end and a top end; and a lid having a bottom end and a top end and two side edges extending between the top end and the bottom end, the top end of the lid being rotatably coupled to the top end of the lower casing with at least one hinge component the lid and the lower casing having adjacent facing surfaces when in a closed position, the arrangement being such that the lid is rotatable about the at least one hinge component relative to the lower casing from the closed position to an open position and from the open position to the closed position; wherein the lid further has a slideable component contained near the bottom end of the lid, the slideable component being contained within the lid and protruding from at least one of the side edges of the lid and being slideable generally in an axial direction of the at least one hinge component; wherein the lid has at least one magnet coupled to the slideable component near the bottom end of the lid and the lower casing has at least one corresponding magnet near the bottom end of the lower casing, wherein the slideable component is adapted to move the magnet in the lid relative to the magnet in the lower casing such that the magnets (702, 704) interact with either attraction or repulsion depending on whether the magnets (702, 704) are aligned or misaligned. a lower casing having a bottom end and a top end; and a lid having a bottom end and a top end and two side edges extending between the top end and the bottom end, the top end of the lid being rotatably coupled to the top end of the lower casing with at least one hinge component the lid and the lower casing having adjacent facing surfaces when in a closed position, the arrangement being such that the lid is rotatable about the at least one hinge component relative to the lower casing from the closed position to an open position and from the open position to the closed position; wherein the lid further has a slideable component contained near the bottom end of the lid, the slideable component being contained within the lid and protruding from at least one of the side edges of the lid and being slideable generally in an axial direction of the at least one hinge component; wherein the lid has at least one magnet coupled to the slideable component near the bottom end of the lid and the lower casing has at least one corresponding magnet near the bottom end of the lower casing, wherein the slideable component is adapted to move the magnet in the lid relative to the magnet in the lower casing such that the magnets (702, 704) interact with either attraction or repulsion depending on whether the magnets (702, 704) are aligned or misaligned.
A method, performed by a terminal, for transmitting a content by the terminal, the method comprising: sending a request for multi-point transmission for the content to a display device; receiving, in response to the request, information about a first transmission rate between the display device and an access point, AP, from the display device; determining a first content distribution ratio for the display device and a second content distribution ratio for the terminal based on a demanded transmission rate for transmission of the content and the first transmission rate, wherein the demanded transmission rate is a total transmission rate that is required until the content is sent from a content server to the display device; wherein the first content distribution ratio is a ratio of a portion of the content which is to be sent from the AP to the display device, wherein this portion is denoted a first content portion; wherein the second content distribution ratio is a ratio of a portion of the content which is to be sent from the terminal to the display device, wherein this portion is denoted a second content portion; sending information about the first content distribution ratio and the second content distribution ratio to the display device; receiving the second content portion corresponding to the second content distribution ratio of the content from the content server; and sending the second content portion to the display device. sending a request for multi-point transmission for the content to a display device; receiving, in response to the request, information about a first transmission rate between the display device and an access point, AP, from the display device; determining a first content distribution ratio for the display device and a second content distribution ratio for the terminal based on a demanded transmission rate for transmission of the content and the first transmission rate, wherein the demanded transmission rate is a total transmission rate that is required until the content is sent from a content server to the display device; wherein the first content distribution ratio is a ratio of a portion of the content which is to be sent from the AP to the display device, wherein this portion is denoted a first content portion; wherein the second content distribution ratio is a ratio of a portion of the content which is to be sent from the terminal to the display device, wherein this portion is denoted a second content portion; sending information about the first content distribution ratio and the second content distribution ratio to the display device; receiving the second content portion corresponding to the second content distribution ratio of the content from the content server; and sending the second content portion to the display device.
A workpiece carrier for supporting a plurality of workpieces, the workpiece carrier comprising a supporting body including a plurality of workpiece support elements, each for supporting a workpiece and providing for individual positioning of the same, the workpiece support elements each including at least one biasing element (17, 19) for applying a biasing force to an edge of the respective workpiece, at least one first cam for acting on an edge of the respective workpiece at a first location against the bias of the at least one biasing element (17, 19), and at least one second cam for acting on an edge of the respective workpiece at a second location against the bias of the at least one biasing element (17, 19), wherein the at least one first cam and the at least one second cam are operable such as to enable the position of the respective workpiece to be set relative to the supporting body.
A capsule comprising a core and a shell surrounding and enclosing the core, the shell comprising a) a first polymer having a first Hildebrand solubility parameter, and b) a second polymer having Hildebrand solubility parameter higher than the first water solubility parameter, and wherein i) the second polymer is crosslinked, and ii) the second polymer is present in an amount of from 0.01% to less than 50% of the total weight of the first and second polymers in the capsule, wherein the first polymer is selected from polylactic acid, polyglycolic acid, polylactic-co-glycolic acid, polycaprolactone, polyphosphoester, polyvinyl acetate, polystyrene, polyglucosamine, gelatin and gum arabic, and wherein the second polymer is selected from polyethylene oxide, polyacrylic acid, polyvinylpyrrolidone, polyvinyl alcohol, polyvinylmethylether-co-maleic acid, hyaluronic acid, alginate, carboxymethyl cellulose, hydroxypropylmethyl cellulose, hydroxyethyl cellulose and starch. a) a first polymer having a first Hildebrand solubility parameter, and b) a second polymer having Hildebrand solubility parameter higher than the first water solubility parameter, i) the second polymer is crosslinked, and ii) the second polymer is present in an amount of from 0.01% to less than 50% of the total weight of the first and second polymers in the capsule,
A computer implemented method comprising: setting, by a computing device, a debugging breakpoint at an original entry point address of a packed portable executable file to allow the execution of the packed PE file to be suspended prior to control being passed to the executable file embodied within the packed PE file; executing, by the computing device, a debugging process for the packed portable executable file including at least partially unpacking the packed PE file to obtain a debugged portable executable file in memory; collecting, by the computing device, one or more of import address table data and relocation table data during execution of the debugging process for the packed portable executable file; pasting into the debugged portable executable file, by the computing device, one or more of an import address table, based upon, at least in part, the collected import address table data, and, a relocation table, based upon, at least in part, the collected relocation table data; copying, by the computing device, the debugged portable executable file in memory to a storage medium; and terminating, by the computing device, the debugging process. setting, by a computing device, a debugging breakpoint at an original entry point address of a packed portable executable file to allow the execution of the packed PE file to be suspended prior to control being passed to the executable file embodied within the packed PE file; executing, by the computing device, a debugging process for the packed portable executable file including at least partially unpacking the packed PE file to obtain a debugged portable executable file in memory; collecting, by the computing device, one or more of import address table data and relocation table data during execution of the debugging process for the packed portable executable file; pasting into the debugged portable executable file, by the computing device, one or more of an import address table, based upon, at least in part, the collected import address table data, and, a relocation table, based upon, at least in part, the collected relocation table data; copying, by the computing device, the debugged portable executable file in memory to a storage medium; and terminating, by the computing device, the debugging process.
An inflatable spa comprising: a top wall; a bottom wall; an internal wall; an external wall; an inflatable air chamber defined by the top wall, the bottom wall, the internal wall, and the external wall; a water cavity defined by the bottom wall and the internal wall; a control system; a water inlet pipe that directs water from the water cavity to the control system; a water outlet pipe that returns water from the control system; a flexible water connecting pipe extending from the water outlet pipe; and a plurality of spray nozzles, each spray nozzle extending through the internal wall and having an air hole to deliver jetted water to the water cavity; wherein the flexible water connecting pipe extends between adjacent spray nozzles characterized in that the flexible water connecting pipe is concealed within the inflatable air chamber. a top wall; a bottom wall; an internal wall; an external wall; an inflatable air chamber defined by the top wall, the bottom wall, the internal wall, and the external wall; a water cavity defined by the bottom wall and the internal wall; a control system; a water inlet pipe that directs water from the water cavity to the control system; a water outlet pipe that returns water from the control system; a flexible water connecting pipe extending from the water outlet pipe; and a plurality of spray nozzles, each spray nozzle extending through the internal wall and having an air hole to deliver jetted water to the water cavity; wherein the flexible water connecting pipe extends between adjacent spray nozzles characterized in that the flexible water connecting pipe is concealed within the inflatable air chamber.
A thermal barrier coating applied to a turbine engine component having a substrate, said coating comprising: a first layer which has a strain tolerant, columnar microstructure at an interface with the substrate for spallation resistance; and a second layer which is porous, conduction and radiation thermally resistant at an outer surface of the thermal barrier coating; wherein there is a continuously graded microstructure from the interface to the outer surface; wherein said first and second layers are formed from the same material; wherein each of said first and second layers is formed from 7wt% yttria stabilized zirconia; and wherein said first layer has a first thermal conductivity and said second layer has a second thermal conductivity which is at least 10% lower than the first thermal conductivity. a first layer which has a strain tolerant, columnar microstructure at an interface with the substrate for spallation resistance; and a second layer which is porous, conduction and radiation thermally resistant at an outer surface of the thermal barrier coating; wherein there is a continuously graded microstructure from the interface to the outer surface; wherein said first and second layers are formed from the same material; wherein each of said first and second layers is formed from 7wt% yttria stabilized zirconia; and wherein said first layer has a first thermal conductivity and said second layer has a second thermal conductivity which is at least 10% lower than the first thermal conductivity.
A method of handling a radio resource control, RRC, connection resume procedure between a non-access stratum, NAS, layer and an RRC layer of a communication device (20, 30), the method comprising: the NAS layer in a first idle mode with suspend indication transmitting a first request message for resuming a RRC connection and at least one first identity parameter to the RRC layer, after receiving a suspend indication from the RRC layer; the RRC layer transmitting a RRC connection resume request message to a network, after receiving the first request message from the NAS layer; the RRC layer receiving a first RRC connection setup message from the network, after transmitting the RRC connection resume request message to the network; and the RRC layer transmitting a first RRC connection setup complete message comprising the at least one first identify parameter to the network, after receiving the first RRC connection setup message from the network. the NAS layer in a first idle mode with suspend indication transmitting a first request message for resuming a RRC connection and at least one first identity parameter to the RRC layer, after receiving a suspend indication from the RRC layer; the RRC layer transmitting a RRC connection resume request message to a network, after receiving the first request message from the NAS layer; the RRC layer receiving a first RRC connection setup message from the network, after transmitting the RRC connection resume request message to the network; and the RRC layer transmitting a first RRC connection setup complete message comprising the at least one first identify parameter to the network, after receiving the first RRC connection setup message from the network.
Machine for implementing a process for packing into bags objects with bags, having the shape of a flattened tubing closed at one end and opened at the other end, comprising two sides joined by lateral bellows, one of said side extending beyond the other to form a flap, said process comprising the steps of piling the bags by placing their flaps in a same direction, the shortest side being disposed on top; of applying the thus formed pile against a stop, disposed on top of said flaps, comprising, at least, a pointed organ capable, under the influence of the pressure, of piercing always at least two flaps (V1, V2); of throwing an air jet to open the upper bag; and of introducing said object by pushing it up to the bottom of the bag, the latter, under such action, tearing itself partially and escaping the action of said pointed organ, characterized in that it comprises two tables (3 and 1), said first table being fixed and comprising at its end said stop which extends itself on top of said second table, on which the bags are placed, said latter table being able to pivot around an horizontal axis situated towards its posterior end while its anterior end is submitted to a force which tends to apply it against said stop, and each table comprising a pair of borders with a variable spacing.