mhurhangee/ep-ind-claims huggingface dataset:
An apparatus to train a data structure selection artificial intelligence model, the apparatus comprising: an ordinal assigner to: assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; a filter generator to, for a first data structure API call of the training code operations, generate a Bloom filter bit vector pattern based on: (a) one of the first ordered values corresponding to the first data structure API; (b) one of the second ordered values corresponding to a first one of the assigned candidate data structure types; and (c) a size of the first data structure API; a label generator to generate a first model training input feature vector based on the Bloom filter bit vector pattern, data corresponding to the first data structure API, and a performance metric of the first one of the candidate data structure types for the first data structure API; and a neural network manager to train the data structure selection model with the first model training input feature vector. an ordinal assigner to: assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; a filter generator to, for a first data structure API call of the training code operations, generate a Bloom filter bit vector pattern based on: (a) one of the first ordered values corresponding to the first data structure API; (b) one of the second ordered values corresponding to a first one of the assigned candidate data structure types; and (c) a size of the first data structure API; a label generator to generate a first model training input feature vector based on the Bloom filter bit vector pattern, data corresponding to the first data structure API, and a performance metric of the first one of the candidate data structure types for the first data structure API; and a neural network manager to train the data structure selection model with the first model training input feature vector.
A composition comprising a perfume mixture, wherein (a) said perfume mixture comprises 75% to 100% of Functional Perfume Components (FPCs), by weight of said perfume mixture, and said FPC mixture consists of, by weight of said perfume mixture: 5% to 50% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 5% to 45% dihydro myrcenol; and 15% to 45% linalool, wherein said composition is substantially free of a Volatile Organic compound, meaning it has no more than 18%, by weight of said composition, of VOCs; or (b) said perfume mixture comprises a FPC mixture, said FPC mixture consists of, by weight of said perfume mixture: 5% to 10% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 20% to 45% dihydro myrcenol; and 35% to 45% linalool wherein said composition is free of a VOC; wherein VOCs mean volatile organic compounds that have a vapor pressure of greater than 0.2 mm Hg (26.7 Pa) measured at 20 °C. (a) said perfume mixture comprises 75% to 100% of Functional Perfume Components (FPCs), by weight of said perfume mixture, and said FPC mixture consists of, by weight of said perfume mixture: 5% to 50% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 5% to 45% dihydro myrcenol; and 15% to 45% linalool, wherein said composition is substantially free of a Volatile Organic compound, meaning it has no more than 18%, by weight of said composition, of VOCs; or 5% to 50% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 5% to 45% dihydro myrcenol; and 15% to 45% linalool, wherein said composition is substantially free of a Volatile Organic compound, meaning it has no more than 18%, by weight of said composition, of VOCs; or (b) said perfume mixture comprises a FPC mixture, said FPC mixture consists of, by weight of said perfume mixture: 5% to 10% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 20% to 45% dihydro myrcenol; and 35% to 45% linalool 5% to 10% of benzyl acetate; 5% to 35% of iso-nonyl acetate; 20% to 45% dihydro myrcenol; and 35% to 45% linalool
A fusion protein comprising an insulin polypeptide and an Fc fragment, wherein the insulin polypeptide and the Fc fragment are connected by a linker, such as a peptide linker, wherein the Fc fragment comprises the following sequence: and the insulin polypeptide comprises the following sequence: FVNQHLCGSX 1 LVEALALVCGERGFHYGGGGGGSGGGGGIVEQCCX 2 STCSLDQLENYC (SEQ ID NO: 10). where X 1 is not D and X 2 is not H. FVNQHLCGSX 1 LVEALALVCGERGFHYGGGGGGSGGGGGIVEQCCX 2 STCSLDQLENYC (SEQ ID NO: 10). where X 1 is not D and X 2 is not H.
A cutting insert comprising: a cutting portion, having a cutting portion axis defining a forward to rearward direction (D F, D R), the cutting portion comprising a cutting edge formed at an intersection of a rake surface and a relief surface, the cutting edge having a forward portion; and a chip-control arrangement located at the rake surface; the chip-control arrangement comprising: a plurality of recesses (50, 74) extending downwardly into the rake surface; and a plurality of projections (52, 72) extending upwardly from the rake surface; wherein the plurality of recesses (50, 74) follow a pattern of increasing depth in the rearward direction (D R) from the forward portion of the cutting edge; the plurality of projections (52, 72) follow a pattern of increasing height in the rearward direction (D R) from the forward portion of the cutting edge; characterised in that the plurality of recesses (50, 74) are arranged in recess rows (54, 56, 58, 60, 84), each recess row extending in a recess plane (P R) which is perpendicular to the cutting portion axis; and each recess (50, 74) of a first recess row has a first recess depth (D E1) of smaller magnitude than a second recess depth (D E2) of each recess (50, 74) of an adjacent second recess row which is axially further from the cutting edge than the first recess row. a cutting portion, having a cutting portion axis defining a forward to rearward direction (D F, D R), the cutting portion comprising a cutting edge formed at an intersection of a rake surface and a relief surface, the cutting edge having a forward portion; and a chip-control arrangement located at the rake surface; the chip-control arrangement comprising: a plurality of recesses (50, 74) extending downwardly into the rake surface; and a plurality of projections (52, 72) extending upwardly from the rake surface; the plurality of recesses (50, 74) follow a pattern of increasing depth in the rearward direction (D R) from the forward portion of the cutting edge; the plurality of projections (52, 72) follow a pattern of increasing height in the rearward direction (D R) from the forward portion of the cutting edge; characterised in that the plurality of recesses (50, 74) are arranged in recess rows (54, 56, 58, 60, 84), each recess row extending in a recess plane (P R) which is perpendicular to the cutting portion axis; and each recess (50, 74) of a first recess row has a first recess depth (D E1) of smaller magnitude than a second recess depth (D E2) of each recess (50, 74) of an adjacent second recess row which is axially further from the cutting edge than the first recess row.
A physical downlink control channel, PDCCH, reception method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, allocation information for allocating a plurality of control resource sets, CORESETs, wherein the plurality of CORESETs is resources limited to some bandwidth parts in a system bandwidth of the base station in a frequency domain; and receiving a single PDCCH through the plurality of CORESETs indicated by the allocation information, wherein each of the plurality of CORESETs comprises a plurality of control channel elements, CCEs, wherein a number of PDCCH candidates to which a PDCCH is allowed to be mapped is identical for each specific aggregation level of CCEs in each of the plurality of control resource sets, and wherein the single PDCCH is received from the plurality of CORESETs through PDCCH candidates having an identical index. receiving, from a base station, allocation information for allocating a plurality of control resource sets, CORESETs, wherein the plurality of CORESETs is resources limited to some bandwidth parts in a system bandwidth of the base station in a frequency domain; and receiving a single PDCCH through the plurality of CORESETs indicated by the allocation information, wherein each of the plurality of CORESETs comprises a plurality of control channel elements, CCEs, wherein a number of PDCCH candidates to which a PDCCH is allowed to be mapped is identical for each specific aggregation level of CCEs in each of the plurality of control resource sets, and wherein the single PDCCH is received from the plurality of CORESETs through PDCCH candidates having an identical index.
A device for use in a multi-chancel pipetting system, the device comprising: a body; a plurality of modules mounted to the body, wherein each of the plurality of modules includes an orifice connecting to an intake chamber; a plurality of pistons mounted to a piston holder for simultaneous movement of the plurality of pistons in a first direction, wherein a piston of the plurality of pistons extends into the intake chamber of a module of the plurality of modules for movement in the first direction; and a guidance assembly comprising a first rotating element; a second rotating element; a shaft connecting the first rotating element to the second rotating element, the shaft extending in a second direction, wherein the second direction is orthogonal to the first direction; a first track extending parallel to the first direction; and a second track extending parallel to the first direction, wherein the first rotating element is mounted to roll along the first track and the second rotating element is mounted to roll along the second track, characterized in that the first rotating element and the second rotating element are mounted to rotate freely on the shaft, wherein the first rotating element and the second rotating element are configured to roll simultaneously with movement of the plurality of pistons in the first direction, wherein the first track and the second track are mounted on the body and the shaft is mounted on the piston holder, or the first track and the second track are mounted on the piston holder and the shaft is mounted on the body. a body; a plurality of modules mounted to the body, wherein each of the plurality of modules includes an orifice connecting to an intake chamber; a plurality of pistons mounted to a piston holder for simultaneous movement of the plurality of pistons in a first direction, wherein a piston of the plurality of pistons extends into the intake chamber of a module of the plurality of modules for movement in the first direction; and a guidance assembly comprising a first rotating element; a second rotating element; a shaft connecting the first rotating element to the second rotating element, the shaft extending in a second direction, wherein the second direction is orthogonal to the first direction; a first track extending parallel to the first direction; and a second track extending parallel to the first direction, wherein the first rotating element is mounted to roll along the first track and the second rotating element is mounted to roll along the second track, characterized in that the first rotating element and the second rotating element are mounted to rotate freely on the shaft, wherein the first rotating element and the second rotating element are configured to roll simultaneously with movement of the plurality of pistons in the first direction, wherein the first track and the second track are mounted on the body and the shaft is mounted on the piston holder, or the first track and the second track are mounted on the piston holder and the shaft is mounted on the body.
A method for processing a lithographic printing plate material comprising the steps of: (i) treating the plate material with an alkaline development solution, (ii) treating the plate material with a first gum solution and consecutively with a second gum solution, wherein the first and second gum solutions are configured as a cascade whereby the second gum solution overflows into the first gum solution. (i) treating the plate material with an alkaline development solution, (ii) treating the plate material with a first gum solution and consecutively with a second gum solution,
A method for providing a cross-view malware detection, comprising: observing a first operation performed by an executable object on a memory at a first abstraction level; observing a substantially simultaneous second operation performed by the executable object on the memory at a second abstraction level; making a determination that the first operation does not substantially match the second operation; and acting (570, 580) on the determination, characterized in that making a determination that the first operation does not substantially match the second operation comprises: reconstructing one or more call traces from the second operation by translating these one or more call traces from a lower abstraction level to reconstructed call traces on a higher abstraction level; deconstructing one or more call traces from the first operation by translating these one or more call traces from a higher abstraction level to deconstructed call traces on a lower abstraction level, so as to construct the reconstructed call traces and the deconstructed call traces to a similar abstraction level; and comparing the reconstructed call traces to the deconstructed call traces. observing a first operation performed by an executable object on a memory at a first abstraction level; observing a substantially simultaneous second operation performed by the executable object on the memory at a second abstraction level; making a determination that the first operation does not substantially match the second operation; and acting (570, 580) on the determination, characterized in that making a determination that the first operation does not substantially match the second operation comprises: reconstructing one or more call traces from the second operation by translating these one or more call traces from a lower abstraction level to reconstructed call traces on a higher abstraction level; deconstructing one or more call traces from the first operation by translating these one or more call traces from a higher abstraction level to deconstructed call traces on a lower abstraction level, so as to construct the reconstructed call traces and the deconstructed call traces to a similar abstraction level; and comparing the reconstructed call traces to the deconstructed call traces. reconstructing one or more call traces from the second operation by translating these one or more call traces from a lower abstraction level to reconstructed call traces on a higher abstraction level; deconstructing one or more call traces from the first operation by translating these one or more call traces from a higher abstraction level to deconstructed call traces on a lower abstraction level, so as to construct the reconstructed call traces and the deconstructed call traces to a similar abstraction level; and comparing the reconstructed call traces to the deconstructed call traces.
A catheter comprising: an elongated catheter body; a distal electrode member having a porous substrate and a plurality of surface electrodes on portions of an outer surface of the porous substrate, the porous substrate having an interior chamber adapted to receive conductive fluid; a plurality of lead wires, each connected to a respective surface electrode; and a lead wire having a distal portion extending into the interior chamber, the lead wire adapted to electrify the conductive fluid in the chamber, wherein the porous substrate is adapted to pass the conductive fluid from the chamber to the outer surface of the porous substrate; characterized in that the distal portion of the lead wire extending into the interior chamber is either: i) wrapped around itself, ii) coiled around a distal portion of an irrigation tubing, or iii) widely spiraling approaching the inner surface of the interior chamber. an elongated catheter body; a distal electrode member having a porous substrate and a plurality of surface electrodes on portions of an outer surface of the porous substrate, the porous substrate having an interior chamber adapted to receive conductive fluid; a plurality of lead wires, each connected to a respective surface electrode; and a lead wire having a distal portion extending into the interior chamber, the lead wire adapted to electrify the conductive fluid in the chamber, wherein the porous substrate is adapted to pass the conductive fluid from the chamber to the outer surface of the porous substrate; characterized in that the distal portion of the lead wire extending into the interior chamber is either: i) wrapped around itself, ii) coiled around a distal portion of an irrigation tubing, or iii) widely spiraling approaching the inner surface of the interior chamber. i) wrapped around itself, ii) coiled around a distal portion of an irrigation tubing, or iii) widely spiraling approaching the inner surface of the interior chamber.
Drilling structure for cutting a rock mass, comprising a support structure, driving means coupled to the support structure, and at least two top hammers operable by the driving means, the structure being configured so that each of the two top hammers is operable and thus movable independently of the other top hammer, characterized in that the drilling structure further comprises at least one controller configured to control the driving means, the controller being additionally configured to adjust the alignment of at least one of the hammers with one or more of the remaining hammers, based on movement data of the hammers.
A device for sealing product packages wrapped in sheets of thermoplastic material, comprising a system for feeding the packages along a feed path and, along said feed path, welding members for sealing said sheets of thermoplastic material; wherein each welding member comprises a magnetic field generator (11, 13, 13X, 19) with a magnetic circuit and a mobile heat-sealing element heated by currents in said mobile heat-sealing element magnetically induced by said magnetic field generator (11, 13, 13X, 19); characterized by a first set of welding members and a second set of welding members arranged on a first side and on a second side of said feed path, respectively; wherein each mobile heat-sealing element includes a rotating roller; and wherein said first set of welding members and said second set of welding members and said feed path are arranged such that the device is able to seal opposed sides or faces of packages wrapped in said sheets of thermoplastic material which advance along said feed path between said opposed mobile heat-sealing elements and in contact therewith.
A method for a display system of a motor vehicle, the motor vehicle comprising one or more seats (6, 150) for occupants of the vehicle, the position and/or orientation of the seats within an interior of the motor vehicle being variable the method comprising: generating an image on a surface of the motor vehicle; detecting an object placed on the surface; adjusting the image such that a portion of the image is moved from a first area of the surface in which the object has been detected to a second area of the surface, wherein, wherein the method comprises: determining a position and/or orientation of the seats; determining an orientation of at least a part of the image according to the position and/or orientation of the seats; and displaying the image such that at least the part of the image is in the determined orientation, wherein the method further comprises: determining a change in the position and/or orientation of the seats (6, 150); adjusting the orientation of the image or part thereof according to the change in position and/or orientation of the seats; and adjusting the portion of the image moved into the second area according to the position of the object relative to the image following the change in position and/or orientation of the seats. generating an image on a surface of the motor vehicle; detecting an object placed on the surface; determining a position and/or orientation of the seats; determining an orientation of at least a part of the image according to the position and/or orientation of the seats; and determining a change in the position and/or orientation of the seats (6, 150); adjusting the orientation of the image or part thereof according to the change in position and/or orientation of the seats; and adjusting the portion of the image moved into the second area according to the position of the object relative to the image following the change in position and/or orientation of the seats.
Infant accommodation apparatus supported in normal use on a flat horizontal surface, said apparatus comprising a support device having, in a vertical plane, a substantially constant circular or oval-shaped cross-section along its extent, said support device including an inner enclosure wall which is an inwardly facing upstanding enclosure wall which defines an infant accommodation region in which an infant may be positioned in use, wherein said inner enclosure wall is endless and defines an endless non-circular enclosure around the infant accommodation region, wherein the maximum diameter of the infant accommodation region is in the range 20 to 50cm, wherein said inner enclosure wall includes, when viewed from above, three curved apex regions separated by curved side regions, said support device further including an outer enclosure wall which is an outwardly facing upstanding enclosure wall, wherein said outer enclosure wall is, when viewed from above, non-circular and substantially symmetrical about each of three vertical planes angled at 120° to each other.
An apparatus for providing wireless power, comprising: means for providing power along a power path; first means for tuning the power path and generating a harmonic; and second means for tuning the power path and generating another harmonic, the second means for tuning having a capacitance inversely related to a capacitance of the first means for tuning, that at least partly cancels the harmonic generated by the first means for tuning. means for providing power along a power path; first means for tuning the power path and generating a harmonic; and second means for tuning the power path and generating another harmonic, the second means for tuning having a capacitance inversely related to a capacitance of the first means for tuning, that at least partly cancels the harmonic generated by the first means for tuning.