mhurhangee/ep-ind-claims huggingface dataset:
A method for optimizing replication in a distributed network configured for hosting and communicating among plurality of data packets and a database server, comprising: determining existing cluster topology of the network by a router operating in the network; identifying and optimizing a data replication stream in use in the network based on the data packets, by said router; determining a routing scheme based on the cluster topology by the router; routing data packets though said network based on said routing scheme; and applying a predefined policy to at least one predefined router corresponding to an identified data replication stream by the router; characterized in that said router determining existing cluster topology of the network comprises at least one edge router publishing a database replication service in the network and wherein an edge router operating closest to said database server is a master database edge router, MDER; wherein the MDER optimizes data replication stream by enabling caching on the at least one edge router and attaching a finger print to a payload associated with the cache. determining existing cluster topology of the network by a router operating in the network; identifying and optimizing a data replication stream in use in the network based on the data packets, by said router; determining a routing scheme based on the cluster topology by the router; routing data packets though said network based on said routing scheme; and applying a predefined policy to at least one predefined router corresponding to an identified data replication stream by the router; characterized in that said router determining existing cluster topology of the network comprises at least one edge router publishing a database replication service in the network and wherein an edge router operating closest to said database server is a master database edge router, MDER; wherein the MDER optimizes data replication stream by enabling caching on the at least one edge router and attaching a finger print to a payload associated with the cache.
Metal powder adapted for surface coating by thermal spraying or weld cladding metal parts, consisting of 5-9% Cr; 2-3% Si; 0.2-2% B; 16-55% Ni; 0-1.5% C, 0-2% P; the balance being Fe.
Mechanism intended to be mounted on an actuation base of a receptacle for applying a cosmetic product, the mechanism being designed to make the cosmetic product exit by at least one rotation movement, characterised in that said mechanism comprises: - at least one sheath made of plastic material internally comprising at least one helical groove; - a guide comprising a wheel intended to allow the rotation of the guide, the wheel being intended to be connected in rotation to the base; - a casing made of plastic material external to the sheath, the casing and the sheath being interfused in at least one point, called assembly point, so as to be integral in rotation and in translation. - at least one sheath made of plastic material internally comprising at least one helical groove; - a guide comprising a wheel intended to allow the rotation of the guide, the wheel being intended to be connected in rotation to the base; - a casing made of plastic material external to the sheath, the casing and the sheath being interfused in at least one point, called assembly point, so as to be integral in rotation and in translation.
An adjustable bone implant for expansile cranioplasty surgery, comprising: a body configured to be secured to a first bone surface; an anchoring member configured to be secured to a second bone surface held at a raised position offset from the first bone surface, wherein the second bone surface comprises an upper surface of a bone flap and the first bone surface comprises an upper surface of the remainder of the skull; and a spacing member connecting the anchoring member to the body in an adjustable manner, to selectively space the anchoring member from the body, wherein the spacing member is located subcutaneously in use, wherein the spacing member is configured to receive an input via a transcutaneous transmission from an external tool, and wherein the spacing member is configured to lower the bone flap from a raised position and secure the bone flap at the lowered position, the lowering movement being perpendicular to the first and second bone surfaces, and wherein the external tool comprises a magnetic head and wherein the spacing member comprises a magnetic portion, and wherein the magnetic head and the magnetic portion are magnetically coupleable transcutaneously, whereby rotation of the external tool causes a rotation of the spacing member for adjustment thereof, characterised in that the spacing member is configured to lower the bone flap from a raised position upon receipt of the input from the external tool. a body configured to be secured to a first bone surface; an anchoring member configured to be secured to a second bone surface held at a raised position offset from the first bone surface, wherein the second bone surface comprises an upper surface of a bone flap and the first bone surface comprises an upper surface of the remainder of the skull; and a spacing member connecting the anchoring member to the body in an adjustable manner, to selectively space the anchoring member from the body, wherein the spacing member is located subcutaneously in use, wherein the spacing member is configured to receive an input via a transcutaneous transmission from an external tool, and wherein the spacing member is configured to lower the bone flap from a raised position and secure the bone flap at the lowered position, the lowering movement being perpendicular to the first and second bone surfaces, and wherein the external tool comprises a magnetic head and wherein the spacing member comprises a magnetic portion, and wherein the magnetic head and the magnetic portion are magnetically coupleable transcutaneously, whereby rotation of the external tool causes a rotation of the spacing member for adjustment thereof, characterised in that the spacing member is configured to lower the bone flap from a raised position upon receipt of the input from the external tool.
A method of moulding a wind-turbine blade in a mould, which method comprises the steps of - arranging a number of markers (A, A', B, C) on an interior of the mould in a region corresponding to a root portion of the blade; - arranging a composite layup in the mould; and - assembling and curing the composite layup in the mould such that a negative impression (R A, R B, R C) of a marker (A, A', B, C) is formed on a surface of the composite layup, which negative impression (R A, R B, R C) facilitates correct positioning of the blade relative to a component (41, 42) in a subsequent assembly step. - arranging a number of markers (A, A', B, C) on an interior of the mould in a region corresponding to a root portion of the blade; - arranging a composite layup in the mould; and - assembling and curing the composite layup in the mould such that a negative impression (R A, R B, R C) of a marker (A, A', B, C) is formed on a surface of the composite layup, which negative impression (R A, R B, R C) facilitates correct positioning of the blade relative to a component (41, 42) in a subsequent assembly step.
A self-warming peritoneal dialysis solution bag containing a peritoneal dialysis solution, the bag having an outer surface, a non-electric, warming patch (32, 34) affixed to the outer surface, and a drainage port, wherein the non-electric, warming patch (32, 34) comprises a breathable membrane, the warming patch containing an activatable agent that undergoes an exothermic reaction when activated with air, and the warming patch retains a sufficient amount of activatable agent to generate enough heat, upon activation, to warm the contents of the bag from 23.9°C (75°F) to a temperature of from 35°C (95°F) to not higher than 39.4°C (103°F) such that the peritoneal dialysis solution is within an acceptable temperature range for transfer into a peritoneal cavity, wherein at least one of the non-electric, warming patch (32, 34) comprises a removable, resealable protective cover that prevents activation of the activatable agent until the removable, resealable protective cover is removed from contact with the breathable membrane and terminates activation when reapplied to the breathable membrane, and wherein the warming peritoneal dialysis solution bag further contains a temperature indicator affixed to the bag, the temperature indicator comprising a color indicator, the color indicator comprising a first color indicator configured to indicate when the solution in the bag is at a suitable temperature, and one or more other color indicators configured to indicate when the solution in the bag is not hot enough or is too hot.
Modular crankset comprising - a crankset shaft, - a gear wheel, and - a crank, - wherein the crankset shaft has an interface shared by the crank and the gear wheel, wherein the gear wheel and the crank are fixed to the crankset shaft with a screw that is fixed at a threaded end of the crankset shaft, and wherein the crankset shaft comprises a retaining element, - wherein the modular crankset comprises a second crank on the side remote from the gear wheel, wherein the crankset shaft has a second interface on the end remote from the gear wheel engaging a matching complementary interface of the second crank, - characterized in that the width of the interface of the second crank in the direction of the axis of the shaft is larger than the width of the interface of the first crank. - a crankset shaft, - a gear wheel, and - a crank, - wherein the crankset shaft has an interface shared by the crank and the gear wheel, wherein the gear wheel and the crank are fixed to the crankset shaft with a screw that is fixed at a threaded end of the crankset shaft, and wherein the crankset shaft comprises a retaining element, - wherein the modular crankset comprises a second crank on the side remote from the gear wheel, wherein the crankset shaft has a second interface on the end remote from the gear wheel engaging a matching complementary interface of the second crank, - characterized in that the width of the interface of the second crank in the direction of the axis of the shaft is larger than the width of the interface of the first crank.
A pump (108, 208) for a motor vehicle internal combustion engine, comprising a rotor (120, 220) which can be connected to a camshaft of the internal combustion engine and having an axis (a, b), and a pump casing (109, 209) which can be connected to a housing of the internal combustion engine and having a first pump casing region (110, 210) and a second, cylindrical, pump casing region (112, 212), wherein the second pump casing region (112, 212) is intended for entry through an opening region of the internal combustion engine housing into the internal combustion engine housing, the axis (a, b) of the pump rotor is arranged eccentrically to a circular cross-sectional surface area (A, B) of the second pump casing region (112, 212), and fastening points (114, 115, 214, 215) are provided for fastening the pump casing (109, 209) to the internal combustion engine housing in an exact position, characterised in that at least one fastening point (114, 214) comprises at least one fitting element (116, 216), the fastening points (114, 115, 214, 215) are arranged substantially below the axis (a, b) of the pump rotor (120, 220) and the pump casing (109, 209) is reinforced (118, 218) in rib-like manner between its first pump casing region (110, 210) and the fastening points (114, 115, 214, 215).
A data transfer apparatus, comprising: a first reception means configured to receive data and validity information indicating whether the data is valid for every second number of bits; and a first transmission means configured to transmit the data received by the first reception means, in units of a first number of bits equal to or larger than the second number of bits, wherein the first transmission means is configured, every time in the case that a data portion of the first number of bits to be transmitted by the first transmission means contains invalid data, to transmit validity information corresponding to the data portion of the first number of bits and an identifier indicating presence of the validity information in association with the data portion of the first number of bits. a first reception means configured to receive data and validity information indicating whether the data is valid for every second number of bits; and a first transmission means configured to transmit the data received by the first reception means, in units of a first number of bits equal to or larger than the second number of bits, wherein the first transmission means is configured, every time in the case that a data portion of the first number of bits to be transmitted by the first transmission means contains invalid data, to transmit validity information corresponding to the data portion of the first number of bits and an identifier indicating presence of the validity information in association with the data portion of the first number of bits.
A travel route generation device that is configured to generate a travel route for automatic traveling of a field work vehicle, the travel route generation device comprising: a field data input unit which is configured to input a field data, the field data including a shape and an entrance of a field; a travel route generation unit which is configured to generate the travel route covering the field; a getting-off point determination unit which is configured to determine a getting-off point at which a driver gets off the field work vehicle in the travel route; and a getting-on determination unit which is configured to determine a getting-on point at which the driver gets on the field work vehicle in the travel route; characterized by comprising a travel route division unit which is configured to define a travel route for manual traveling as a travel route portion between the entrance and the getting-off point in the travel route and a travel route portion between the getting-on point and the entrance in the travel route and to define a travel route for the automatic traveling as a travel route portion between the getting-off point and the getting-on point in the travel route. a field data input unit which is configured to input a field data, the field data including a shape and an entrance of a field; a travel route generation unit which is configured to generate the travel route covering the field; a getting-off point determination unit which is configured to determine a getting-off point at which a driver gets off the field work vehicle in the travel route; and a getting-on determination unit which is configured to determine a getting-on point at which the driver gets on the field work vehicle in the travel route; characterized by comprising a travel route division unit which is configured to define a travel route for manual traveling as a travel route portion between the entrance and the getting-off point in the travel route and a travel route portion between the getting-on point and the entrance in the travel route and to define a travel route for the automatic traveling as a travel route portion between the getting-off point and the getting-on point in the travel route.
A rifle leg, the leg including: a pair of telescopically slidable elongated members (30, 40); the first member configured to be fixed to the stock of a rifle; the second member being telescopically slidable relative to the first member between a retracted position and an extended position; a biasing means for biasing the second member towards the extended position; characterised in that the rifle leg includes a damper means for damping the movement of the second member between the retracted and extended positions to assist in controlling the relative movement of the first and second members. a pair of telescopically slidable elongated members (30, 40); the first member configured to be fixed to the stock of a rifle; the second member being telescopically slidable relative to the first member between a retracted position and an extended position; a biasing means for biasing the second member towards the extended position; characterised in that the rifle leg includes a damper means for damping the movement of the second member between the retracted and extended positions to assist in controlling the relative movement of the first and second members.
A method for controlling an inverter performing an output optimization of a motor at a section over the rated speed of the motor and at a section less than the rated speed of the motor, the method comprising: setting an optimal speed level defined by an user; calculating an optimal speed using an average torque, a forward direction torque limit, a backward direction torque limit, and the rated speed of the motor; checking whether an inputted command speed is higher than the rated speed level of the motor and setting the optimal speed as a final speed when the inputted command speed is higher than the rated speed level of the motor; checking whether the inputted command speed is higher than the optimal speed level, and setting the inputted command speed as the final speed when the inputted command speed is lower than or equal to the rated speed level, and higher than the optimal speed level; and checking whether the motor is in a manual mode when the inputted command speed is lower than or equal to the optimal speed level and the rated speed level, wherein the manual mode is a mode operated by a user input, and setting the inputted command speed as the final speed when the motor is in the manual mode and setting the optimal speed as the final speed when the motor is not in the manual mode, wherein the final speed is a speed command finally provided to the inverter for controlling the inverter at an optimal output, and wherein the average torque is calculated using a number of torques accumulated for a predetermined time and the accumulated torques. setting an optimal speed level defined by an user; calculating an optimal speed using an average torque, a forward direction torque limit, a backward direction torque limit, and the rated speed of the motor; checking whether an inputted command speed is higher than the rated speed level of the motor and setting the optimal speed as a final speed when the inputted command speed is higher than the rated speed level of the motor; checking whether the inputted command speed is higher than the optimal speed level, and setting the inputted command speed as the final speed when the inputted command speed is lower than or equal to the rated speed level, and higher than the optimal speed level; and checking whether the motor is in a manual mode when the inputted command speed is lower than or equal to the optimal speed level and the rated speed level, wherein the manual mode is a mode operated by a user input, and setting the inputted command speed as the final speed when the motor is in the manual mode and setting the optimal speed as the final speed when the motor is not in the manual mode, wherein the final speed is a speed command finally provided to the inverter for controlling the inverter at an optimal output, and wherein the average torque is calculated using a number of torques accumulated for a predetermined time and the accumulated torques.
A vane structure for a gas turbine engine comprising: an airfoil section which defines an aperture, said aperture circular in cross-section; a baffle movably mounted within said aperture, said baffle circular in cross-section and configured to rotate about an axis; a first cooling cavity in communication with said aperture; a second cooling cavity in communication with said aperture; and a third cooling cavity in communication with said aperture, wherein said first cooling cavity defines film cooling cavities, wherein said second cooling cavity defines convective cooling and rotor purge feed cavities, and wherein said third cooling cavity defines convective cooling cavities. an airfoil section which defines an aperture, said aperture circular in cross-section; a baffle movably mounted within said aperture, said baffle circular in cross-section and configured to rotate about an axis; a first cooling cavity in communication with said aperture; a second cooling cavity in communication with said aperture; and a third cooling cavity in communication with said aperture, wherein said first cooling cavity defines film cooling cavities, wherein said second cooling cavity defines convective cooling and rotor purge feed cavities, and wherein said third cooling cavity defines convective cooling cavities.
A motor vehicle headlight having a first light module and a second light module, each of the two light modules (12, 14) being pivotable about a first axis (18, 22) and about a second axis (20, 24) in a housing of the headlight, and the two light modules (12, 14) being movably connected to one another via a coupling mechanism in such a way that a pivoting motion, effected about the first axis (18, 22) of each of the two light modules (12, 14), is transmitted to the respectively other light module (14, 12), characterized in that the coupling mechanism has a first coupling rod having two force introduction points, a double-ended lever having two force introduction points (G, I) and a support, and a second coupling rod having two force introduction points, and the lever is pivotably supported in its support about an axis located horizontally in the headlight when it is being used as intended, and the first coupling rod is hinged at one of its force introduction points to the first light module and at its other force introduction point to a first force introduction point of the lever in such a way that a third point of the first light module is connected by the first coupling rod to the first force introduction point of the double-ended lever, and that the second coupling rod is hinged at one of its force introduction points to the second light module and at its other force introduction point to the second force introduction point of the lever in such a way that the second force introduction point of the lever is pivotably connected to one end of the second coupling rod, the other end of which is pivotably connected to a third point of the second light module.
A method of transferring an image to a processing engine, comprising: scanning an optical sensor to obtain one scan of the image, extracting an image block of a given N-block division of the one scan of the image; storing the extracted image block in at least one of a camera core or a local memory associated with the camera core; transferring the extracted image block from at least one of the camera core or the local memory to a downstream processing engine; and repeating, N times, the scanning, the extracting, the storing, and the transferring to provide the image to the downstream processing engine. scanning an optical sensor to obtain one scan of the image, extracting an image block of a given N-block division of the one scan of the image; storing the extracted image block in at least one of a camera core or a local memory associated with the camera core; transferring the extracted image block from at least one of the camera core or the local memory to a downstream processing engine; and repeating, N times, the scanning, the extracting, the storing, and the transferring to provide the image to the downstream processing engine.