mhurhangee/ep-ind-claims huggingface dataset:
A hardware processor comprising: a decoder to decode a prefetch instruction to prefetch a multidimensional block of elements from a multidimensional array into a cache, wherein at least one operand of the prefetch instruction is to indicate a system memory address of an element of the multidimensional block of elements, a stride of the multidimensional block of elements, and boundaries of the multidimensional block of elements; and an execution unit to execute the prefetch instruction to: generate system memory addresses of the other elements of the multidimensional block of elements; and load the multidimensional block of elements into the cache from the system memory addresses. a decoder to decode a prefetch instruction to prefetch a multidimensional block of elements from a multidimensional array into a cache, wherein at least one operand of the prefetch instruction is to indicate a system memory address of an element of the multidimensional block of elements, a stride of the multidimensional block of elements, and boundaries of the multidimensional block of elements; and an execution unit to execute the prefetch instruction to: generate system memory addresses of the other elements of the multidimensional block of elements; and load the multidimensional block of elements into the cache from the system memory addresses. generate system memory addresses of the other elements of the multidimensional block of elements; and load the multidimensional block of elements into the cache from the system memory addresses.
A submerged arc welding process for welding a workpiece in which the tip of an SAW welding wire is submerged under a blanket of a granular fusible flux during welding, wherein the abrasive wear on the contact tip of a weld gun is reduced by using as the welding wire a welding wire substrate being free of copper cladding, characterised by the welding wire having a coating being fixed on the surfaces of the welding wire substrate, said coating being or comprising a solid lubricant, wherein the solid lubricant is part of a solid lubricant coating composition on the surfaces of the welding wire substrate, and wherein the solid lubricant coating composition further comprising an organic binder and one or more electrically conductive perovskites as a thermally stable solid conductor.
A vehicle comprising a passenger seat assembly, the vehicle comprising: a riser attached to an upper surface of a floor of the vehicle; a seat attached to an upper surface of the riser; at least one shell portion (103, 104) attached to the upper surface of the riser; characterized in that the passenger seat assembly further comprises: at least one movable shade (203, 204, 205) including a stowed configuration and at least one deployed configuration, wherein, in the stowed configuration, the at least one movable shade (203, 204, 205) is retracted above a ceiling of the vehicle and wherein, in one of the at least one deployed configuration, the at least one movable shade (203, 204, 205) extends from the ceiling of the vehicle and approximately reaches the at least one shell portion (103, 104). a riser attached to an upper surface of a floor of the vehicle; a seat attached to an upper surface of the riser; at least one shell portion (103, 104) attached to the upper surface of the riser; at least one movable shade (203, 204, 205) including a stowed configuration and at least one deployed configuration, wherein, in the stowed configuration, the at least one movable shade (203, 204, 205) is retracted above a ceiling of the vehicle and wherein, in one of the at least one deployed configuration, the at least one movable shade (203, 204, 205) extends from the ceiling of the vehicle and approximately reaches the at least one shell portion (103, 104).
A method of adapting a uniform access indexing process with a non-uniform access NAND flash memory (26, 235), the method comprising: a) storing a dictionary of index records in the non-uniform access memory, the index records comprising index keys; b) maintaining a bucket translation table (17,300) for mapping logical bucket identifiers to physical bucket locations of the memory including generating a logical bucket identifier by displacement hashing an index key and the table comprising a mapping of the logical bucket identifier to a physical bucket location (22, 309) of the memory where the associated index record (310, 311, 312) is stored; c) collecting in cache a plurality of buckets, wherein each bucket comprises a set of index records having the same logical bucket identifier prior to writing the collection of buckets from the cache to contiguous physical bucket locations of the memory as a sequential write; and d) updating the bucket translation table with the physical bucket locations for the buckets of the collection written from the cache to the memory. a) storing a dictionary of index records in the non-uniform access memory, the index records comprising index keys; b) maintaining a bucket translation table (17,300) for mapping logical bucket identifiers to physical bucket locations of the memory including generating a logical bucket identifier by displacement hashing an index key and the table comprising a mapping of the logical bucket identifier to a physical bucket location (22, 309) of the memory where the associated index record (310, 311, 312) is stored; c) collecting in cache a plurality of buckets, wherein each bucket comprises a set of index records having the same logical bucket identifier prior to writing the collection of buckets from the cache to contiguous physical bucket locations of the memory as a sequential write; and d) updating the bucket translation table with the physical bucket locations for the buckets of the collection written from the cache to the memory.
A pellet production method comprising: an operation in which a strand comprising a glass-fiber-reinforced polyamide resin composition containing 50 mass% to 80 mass% of glass fiber is extruded from an orifice at a die; an operation in which the strand is drawn into water within a tank and is cooled; and an operation in which the cooled strand is cut to obtain a pellet; wherein an angle (δ 1) of incidence at which the strand enters the water within the tank is not less than 70° but is less than 90°; and wherein a ratio of a diameter of the pellet to a diameter of the orifice, i.e. diameter of the pellet / diameter of the orifice, is 0.65 to 0.97. an operation in which a strand comprising a glass-fiber-reinforced polyamide resin composition containing 50 mass% to 80 mass% of glass fiber is extruded from an orifice at a die; an operation in which the strand is drawn into water within a tank and is cooled; and an operation in which the cooled strand is cut to obtain a pellet; wherein an angle (δ 1) of incidence at which the strand enters the water within the tank is not less than 70° but is less than 90°; and wherein a ratio of a diameter of the pellet to a diameter of the orifice, i.e. diameter of the pellet / diameter of the orifice, is 0.65 to 0.97.
An article of footwear comprising: an upper having a plurality of discrete sections secured to one another, each of the discrete sections including a cover layer (20A-20K) and a corresponding base layer (32A-32K), the cover layer (20A-20K) secured to and covering an outer side (36A-36K) of the corresponding base layer (32A-32K) and selectively removable independently of each other cover layer (20A-20K) to expose the outer side (36A-36K) of the corresponding base layer (32A-32K) without exposing the outer side (36A-36K) of any other corresponding base layer (32A-32K) of any other discrete section, wherein each base layer (32A-32K) has a peripheral edge and the cover layer (20A-20K) secured to the corresponding base layer (32A-32K) has a portion wrapped around and covering the peripheral edge. an upper having a plurality of discrete sections secured to one another, each of the discrete sections including a cover layer (20A-20K) and a corresponding base layer (32A-32K), the cover layer (20A-20K) secured to and covering an outer side (36A-36K) of the corresponding base layer (32A-32K) and selectively removable independently of each other cover layer (20A-20K) to expose the outer side (36A-36K) of the corresponding base layer (32A-32K) without exposing the outer side (36A-36K) of any other corresponding base layer (32A-32K) of any other discrete section, wherein each base layer (32A-32K) has a peripheral edge and the cover layer (20A-20K) secured to the corresponding base layer (32A-32K) has a portion wrapped around and covering the peripheral edge.
A portable sampling device for collecting a sample from exhaled breath of a subject for further sensor based analysis, comprising: a housing (204, 301) comprising at least one inlet and at least one outlet for said exhaled breath to exit through, and a sampling membrane (205,302) arranged in said housing; a mouthpiece and a tubular element (202, 303) in flow communication with said housing (204,301) via said at least one inlet; wherein said sampling membrane is arranged to block a path of a flow of exhaled breath to collect aerosols from said exhaled breath that pass through said sampling membrane when in use; and characterised by a volume measure unit (208, 307) for determining that a pre-defined volume of said exhaled breath has passed through said sampling membrane, and wherein a port is arranged downstream said mouthpiece and upstream said sampling membrane and wherein said port is adapted to extract a defined portion of said exhaled breath into said volume measure unit. a housing (204, 301) comprising at least one inlet and at least one outlet for said exhaled breath to exit through, and a sampling membrane (205,302) arranged in said housing; a mouthpiece and a tubular element (202, 303) in flow communication with said housing (204,301) via said at least one inlet; wherein said sampling membrane is arranged to block a path of a flow of exhaled breath to collect aerosols from said exhaled breath that pass through said sampling membrane when in use; and characterised by a volume measure unit (208, 307) for determining that a pre-defined volume of said exhaled breath has passed through said sampling membrane, and wherein a port is arranged downstream said mouthpiece and upstream said sampling membrane and wherein said port is adapted to extract a defined portion of said exhaled breath into said volume measure unit.
A computer-implemented method for operating a data storage device, including an access management unit for a file system by which, in the event of an access request generated by a process in a data processing device and transmitted to the data storage device, for a file of the file system, this file is made available for file access, in that the access management unit includes a file securing unit by which, in the event of an access request for the file that is forwarded to this file securing unit, a file securing routine is started, in that the access request is blocked until a backup copy of the file has been created and stored, in that during the file securing routine, the backup copy of the file is stored in a protected memory, in that the access request is then forwarded to an access layer for the file system and in that access is carried out by the access layer, characterized in that a fingerprint determining unit of (46, 114) is provided, which, for the respective access request, determines a fingerprint that identifies the access request and forwards the access request together with the fingerprint, in that, when the backup copy is created, the file securing unit associates the fingerprint with the file that is accessed, in that the file securing unit associates the fingerprint with the backup copy, and in that by the creation of the fingerprint for identifying the access request it is ensured that subsequently it can be reproduced on the basis of which access request the file that was accessed was encrypted or damaged.
A traffic management device (100, 200, 500) comprising: a body (102, 202) generally defining an exterior surface and an interior space; a base (106, 206) supporting the body (102, 202) including a portion extending laterally outward from the body (102, 202) and disposed as to support the device (100, 200, 500) on a surface when in use; and a handhold being formed in the body (102, 202) including at least a first opening in the body (102, 202), the opening extending from the exterior surface to the interior space and being configured for receiving a hand there through for grasping and carrying the device (100, 200, 500) wherein the device (100, 200, 500) and handhold are configured to permit a plurality of said devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) to be stacked such that the exterior body surface of an inferior-positioned of said plurality of devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) is receivable within the interior space of a superior-positioned said plurality of devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D); and wherein the devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) are stackable in a predetermined orientation with at least a portion of the openings (120A, 120B, 120C, 120D) of said devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) being overlapping to permit grasping of said plurality of said devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) simultaneously thereby; the device (100, 200, 500) further including a registration structure that includes an interior structure disposed on an interior surface of the device (100, 200, 500) and an exterior structure disposed on the exterior surface of the device (100, 200, 500) such that the interior structure of a superior-positioned device cooperates with the exterior structure of an inferior-positioned device, to assist in bringing the devices (100A, 100B, 100C, 100D, 200A, 200B, 200C, 200D) into said predetermined orientation during stacking. a body (102, 202) generally defining an exterior surface and an interior space; a base (106, 206) supporting the body (102, 202) including a portion extending laterally outward from the body (102, 202) and disposed as to support the device (100, 200, 500) on a surface when in use; and a handhold being formed in the body (102, 202) including at least a first opening in the body (102, 202), the opening extending from the exterior surface to the interior space and being configured for receiving a hand there through for grasping and carrying the device (100, 200, 500)
A device for distracting bone, the device comprising a shape memory material and being capable of distracting bone in 3 dimensions, wherein the shape memory material is nitinol and is a continuous sheet, mesh or web, and characterized in that the shape memory material is arranged into a predetermined 3-dimensional conformation in the austenitic phase of nitinol which corresponds to the desired shape of the bone to be distracted.
A wearable foot controller for a surgical instrument comprising: a body configured to be worn on a foot and including a heel portion and a ball portion on an opposite end of the body from the heel portion; a heel pressure sensor coupled to the heel portion of the body; a ball pressure sensor coupled to the ball portion of the body; a heel movement sensor coupled to the heel portion of the body; a ball movement sensor coupled to the ball portion of the body; and a processor coupled to the body and configured to detect activation of the heel pressure sensor and generate control data for the surgical instrument based upon the ball movement sensor when the heel pressure sensor is activated, detect activation of the ball pressure sensor and generate control data for the surgical instrument based upon the heel movement sensor when the ball pressure sensor is activated, and communicate the control data to the surgical instrument via a communications link. a body configured to be worn on a foot and including a heel portion and a ball portion on an opposite end of the body from the heel portion; a heel pressure sensor coupled to the heel portion of the body; a ball pressure sensor coupled to the ball portion of the body; a heel movement sensor coupled to the heel portion of the body; a ball movement sensor coupled to the ball portion of the body; and a processor coupled to the body and configured to detect activation of the heel pressure sensor and generate control data for the surgical instrument based upon the ball movement sensor when the heel pressure sensor is activated, detect activation of the ball pressure sensor and generate control data for the surgical instrument based upon the heel movement sensor when the ball pressure sensor is activated, and communicate the control data to the surgical instrument via a communications link. detect activation of the heel pressure sensor and generate control data for the surgical instrument based upon the ball movement sensor when the heel pressure sensor is activated, detect activation of the ball pressure sensor and generate control data for the surgical instrument based upon the heel movement sensor when the ball pressure sensor is activated, and communicate the control data to the surgical instrument via a communications link.
Tool for chip removing machining, comprising, on one hand, a basic body, in which at least one seating is included, which is delimited by a base surface and a support protruding in relation to the same, the base surface including a first coupling section in the form of one or more ridges and grooves, and, on the other hand, a replaceable cutting insert having an upperside, an underside and a clearance surface extending between the same and transforming into the upperside via at least one cutting edge, the underside including a second coupling section having one or more grooves and ridges, the last-mentioned ones of which engage the grooves of the first coupling section, and vice versa, at the same time as a part of the clearance surface is urged against the support, characterized in, that an imaginary extension of the individual ridge of the first coupling section extends by the side of the support, and in that the support is constituted by a surface, which runs at an acute angle (β) in relation to the individual ridge of the first coupling section.
An apparatus for shielding hot regions, in particular of an internal combustion engine, having: a heat shield with a through hole; a component, in particular a heat source, with a fastening region which has a receptacle and a shoulder which surrounds the receptacle at least partially, the shoulder extending through the through hole of the heat shield; and a fastening element, in particular a screw, which fastens the heat shield to the fastening region, the fastening element being supported on the shoulder, extending through the through hole of the heat shield, and being fastened in the receptacle, characterized in that: the shoulder extends in a manner which emanates from an, in particular annular, bearing face of the first fastening region, and the heat shield bearing against the bearing face of the first fastening region. a heat shield with a through hole; a component, in particular a heat source, with a fastening region which has a receptacle and a shoulder which surrounds the receptacle at least partially, the shoulder extending through the through hole of the heat shield; and a fastening element, in particular a screw, which fastens the heat shield to the fastening region, the fastening element being supported on the shoulder, extending through the through hole of the heat shield, and being fastened in the receptacle, the shoulder extends in a manner which emanates from an, in particular annular, bearing face of the first fastening region, and the heat shield bearing against the bearing face of the first fastening region.
An LED lighting tube, comprising: a first and a second set of external connecting pins (91, 92, 93, 94) for connecting the LED lighting tube to a luminaire; a first circuit connected between the first set of external connecting pins (91, 92) and the second set of external connecting pins (93, 94), the first circuit being configured as a short-circuit for high frequencies; a second circuit connected between the first circuit and the second set of external connecting pins (93, 94), the second circuit being configured as a short-circuit for low frequencies; a control circuit connected between the first circuit and the second circuit; wherein the control circuit is connected to the second circuit by a relay controllable by the control circuit and by a capacitance, and triggered by high frequencies; a light engine connected between the first circuit and the control circuit;and a PFC circuit for suppressing of harmonic currents or an AC-DC converter is connected between the first circuit and the light engine, characterized in that the control circuit is directly connected to the second circuit by the relay and the capacitance, and apart from the relay and the capacitance the control circuit is galvanically completely decoupled and disconnected from the second circuit. a first and a second set of external connecting pins (91, 92, 93, 94) for connecting the LED lighting tube to a luminaire; a first circuit connected between the first set of external connecting pins (91, 92) and the second set of external connecting pins (93, 94), the first circuit being configured as a short-circuit for high frequencies; a second circuit connected between the first circuit and the second set of external connecting pins (93, 94), the second circuit being configured as a short-circuit for low frequencies; a control circuit connected between the first circuit and the second circuit; wherein the control circuit is connected to the second circuit by a relay controllable by the control circuit and by a capacitance, and triggered by high frequencies; a light engine connected between the first circuit and the control circuit;and a PFC circuit for suppressing of harmonic currents or an AC-DC converter is connected between the first circuit and the light engine, characterized in that the control circuit is directly connected to the second circuit by the relay and the capacitance, and apart from the relay and the capacitance the control circuit is galvanically completely decoupled and disconnected from the second circuit.
A method of fabricating a circuit element, the method comprising: providing a first layer of superconductor material on a substrate; removing a native oxide of the superconductor material of the first layer from a first region of the first layer; forming a capping layer in contact with the first region of the first layer, wherein the capping layer prevents reformation of the native oxide of the superconductor material in the first region; forming, after forming the capping layer, a second layer of superconductor material that electrically connects to the first region of the first layer of superconductor material to provide an electrical contact junction that allows current to flow, wherein the circuit element comprises a Josephson junction, a capacitor, a cross-over bridge or a qubit. providing a first layer of superconductor material on a substrate; removing a native oxide of the superconductor material of the first layer from a first region of the first layer; forming a capping layer in contact with the first region of the first layer, wherein the capping layer prevents reformation of the native oxide of the superconductor material in the first region; forming, after forming the capping layer, a second layer of superconductor material that electrically connects to the first region of the first layer of superconductor material to provide an electrical contact junction that allows current to flow, wherein the circuit element comprises a Josephson junction, a capacitor, a cross-over bridge or a qubit.