mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic dog clutch, comprising a movable gear sleeve and a fixed toothed sleeve that are engaged to transmit power, the movable gear sleeve is provided with contrate transmission teeth (5-1) or contrate tooth spaces, and the fixed toothed sleeve is correspondingly provided with contrate tooth spaces (2-1) or contrate transmission teeth, wherein the contrate transmission teeth have a uniform thickness in a direction of tooth length, the contrate tooth spaces that engage with the contrate transmission teeth have a sector-shape in a direction of tooth space length, and the width of two sides of the contrate tooth spaces gradually increases outwardly along the radial direction of the fixed toothed sleeve and gradually decreases inwardly along the radial direction of the fixed toothed sleeve; the movable gear sleeve is nested on a power output shaft , they transmit power through a spline group (5-2), and the movable gear sleeve reciprocating moves on the spline in an axis direction of the power output shaft; characterized in that a limiting plate is fixed at one end of the power output shaft where the movable gear sleeve is mounted, a damping mechanism is provided between the limiting plate and the movable gear sleeve, and the damping mechanism absorbs shock and reduces noise when the limiting plate and the movable gear sleeve collide.
A method for uplink signal transmission, the method comprising: receiving , by a terminal device, first information transmitted by a network device, wherein the first information is configured to indicate a target sounding signal group in multiple sounding signals transmitted to the network device by the terminal device, the target sounding signal group comprising multiple target sounding signals, and the first information is further used for the terminal device to determine a beam group for transmitting uplink data to the network device, the beam group comprising multiple beams; and transmitting , by the terminal device, the uplink data to the network device by using the beam group, wherein each of the multiple target sounding signals is a sounding signal in a predefined sounding signal group; and the first information is configured to indicate indexes of the multiple target sounding signals in the predefined sounding signal group; wherein transmitting , by the terminal device, the uplink data to the network device by using the beam group comprises: transmitting, by the terminal device, the uplink data to the network device by using a beam group corresponding to the target sounding signal group. receiving , by a terminal device, first information transmitted by a network device, wherein the first information is configured to indicate a target sounding signal group in multiple sounding signals transmitted to the network device by the terminal device, the target sounding signal group comprising multiple target sounding signals, and the first information is further used for the terminal device to determine a beam group for transmitting uplink data to the network device, the beam group comprising multiple beams; and transmitting , by the terminal device, the uplink data to the network device by using the beam group, wherein each of the multiple target sounding signals is a sounding signal in a predefined sounding signal group; and the first information is configured to indicate indexes of the multiple target sounding signals in the predefined sounding signal group; wherein transmitting , by the terminal device, the uplink data to the network device by using the beam group comprises: transmitting, by the terminal device, the uplink data to the network device by using a beam group corresponding to the target sounding signal group.
A system for receiving fluid flow from a plurality of external flow lines, each of the external flow lines being connected to a respective one of a plurality of sources of fluid to be provided to the system, the system comprising: a manifold comprising: a block ; at least one drilled header hole formed within the block ; at least one drilled intersection hole formed within the block ; a plurality of drilled flow inlet holes formed within the block , wherein the number of drilled flow inlet holes corresponds to the number of the plurality external flow lines, the drilled flow inlet holes being in fluid communication with the at least one header hole via the at least one drilled intersection hole ; a plurality of isolation valves having each a valve element and being coupled to the block such that each valve element is positioned within the block; and a shared valve actuation system that is operatively coupled to the manifold at a single location, the shared valve actuation system comprising: an arm that is adapted to rotate about an axis that is normal to an upper surface of the block ; a plurality of structural elements that are coupled to one another via rotary joints ; and a tool that is adapted to engage and actuate one of the plurality of isolation valves . a block ; at least one drilled header hole formed within the block ; at least one drilled intersection hole formed within the block ; a plurality of drilled flow inlet holes formed within the block , wherein the number of drilled flow inlet holes corresponds to the number of the plurality external flow lines, the drilled flow inlet holes being in fluid communication with the at least one header hole via the at least one drilled intersection hole ; a plurality of isolation valves having each a valve element and being coupled to the block such that each valve element is positioned within the block; and a shared valve actuation system that is operatively coupled to the manifold at a single location, the shared valve actuation system comprising: an arm that is adapted to rotate about an axis that is normal to an upper surface of the block ; a plurality of structural elements that are coupled to one another via rotary joints ; and a tool that is adapted to engage and actuate one of the plurality of isolation valves . an arm that is adapted to rotate about an axis that is normal to an upper surface of the block ; a plurality of structural elements that are coupled to one another via rotary joints ; and a tool that is adapted to engage and actuate one of the plurality of isolation valves .
A method of selecting a set of classifiers from a plurality of classifiers distributed in a network at a plurality of network nodes, the classifiers being selected to optimise a voting strategy for detecting network attacks on the network, the method comprising: sending , by a device , voting optimization requests to a plurality of network nodes , the voting optimization requests identifying a validation data set comprising a set of known data; receiving , at the device , voting optimization data from the plurality of network nodes , wherein the network nodes generate the voting optimization data by executing classifiers using the validation data set; selecting a set of one or more voting classifiers from among the classifiers based on the voting optimization data; and notifying , by the device , one or more network nodes of the selection of the set of one or more voting classifiers, wherein the network nodes that are notified comprise the network nodes that host a voting classifier in the set of one or more selected voting classifiers. sending , by a device , voting optimization requests to a plurality of network nodes , the voting optimization requests identifying a validation data set comprising a set of known data; receiving , at the device , voting optimization data from the plurality of network nodes , wherein the network nodes generate the voting optimization data by executing classifiers using the validation data set; selecting a set of one or more voting classifiers from among the classifiers based on the voting optimization data; and notifying , by the device , one or more network nodes of the selection of the set of one or more voting classifiers, wherein the network nodes that are notified comprise the network nodes that host a voting classifier in the set of one or more selected voting classifiers.
A recombinant adeno-associated virus (rAAV) comprising a Duchenne Muscular Dystrophy (DMD) exon 5 internal ribosome entry site (IRES)-activating oligomer construct comprising: (a) a U7-C antisense polynucleotide comprising the nucleotide sequence set forth in SEQ ID NO: 6, or (b) a polynucleotide that encodes the U7-C antisense oligomer comprising the nucleotide sequence set forth in SEQ ID NO: 10 for use in treating DMD or Becker Muscular Dystrophy in a patient with a 5' mutation in the DMD gene, wherein the patient does not have a DMD exon 2 duplication. (a) a U7-C antisense polynucleotide comprising the nucleotide sequence set forth in SEQ ID NO: 6, or (b) a polynucleotide that encodes the U7-C antisense oligomer comprising the nucleotide sequence set forth in SEQ ID NO: 10
A composition comprising at least one polymeric or oligomeric hydroxy phenyl triazine UV filter and at least one additional UV filter, wherein the at least one further UV filter is selected from organic UV-A, UV-B, broad spectrum UV filter or a combination thereof.
A computer-implemented method to determine placement of transducers (21A, 22A, 23A, 24A; 31A, 32A, 33A, 34A; 31B, 32B, 33B, 34B; 31C, 32C, 33C, 34C; 31D, 32D, 33D, 34D, 35D; 31E, 32E, 33E; 41A-E, 42A-E; 61A, B, 62A, B, 63A, B, 64A, B) on a subject's body for inducing tumor treating fields, the computer comprising one or more processors and memory accessible by the one or more processors , the memory storing instructions that, when executed by the one or more processors , cause the computer to perform the method, the method comprising: selecting a plurality of pairs of locations on the subject's body, each pair of locations having a first location to locate a first transducer and a second location to locate a second transducer; obtaining a model of AC electrical conductivity in a portion of the subject's body; obtaining, for each location in the pairs of locations, an indication of heat removal potential at a surface of the subject's body; selecting one or more recommended pairs of first and second locations based at least on the model of AC electrical conductivity and the indication of heat removal potential for each location; and outputting the one or more recommended pairs of first and second locations. selecting a plurality of pairs of locations on the subject's body, each pair of locations having a first location to locate a first transducer and a second location to locate a second transducer; obtaining a model of AC electrical conductivity in a portion of the subject's body; obtaining, for each location in the pairs of locations, an indication of heat removal potential at a surface of the subject's body; selecting one or more recommended pairs of first and second locations based at least on the model of AC electrical conductivity and the indication of heat removal potential for each location; and outputting the one or more recommended pairs of first and second locations.
Motor vehicle having a plurality of battery modules for storing electrical energy in the region of an underbody of a passenger cell of the motor vehicle, wherein the underbody is delimited on both sides by a respective side sill , wherein, as viewed in the vehicle longitudinal direction (x), at least two battery modules are arranged next to one another between the side sills , wherein in each case a battery module adjoins the side sills and in each case at least one deformation element is arranged between the battery modules , characterized in that , as viewed in the vehicle longitudinal direction (x), multiple battery modules arranged next to one another are accommodated behind one another in the underbody and are separated from one another in each case by a single crossmember which extends in the vehicle transverse direction (y) between the side sills .
A display panel, comprising: a base substrate ; a peripheral circuit located on the base substrate , the peripheral circuit comprising a first circuit , a second circuit and a third circuit , and the first circuit , the second circuit and the third circuit respectively comprising a first electrode pattern , a second electrode pattern and a third electrode pattern; and a protection structure, located in at least one circuit of the first circuit , the second circuit and the third circuit and configured for preventing an electrode pattern located in the at least one circuit from being disconnected, wherein the protection structure comprises a first protection structure located in the first circuit , the first protection structure comprises a gate electrode , a dielectric layer and the first electrode pattern sequentially provided on the base substrate ; the dielectric layer comprises at least one first via hole (K1), at least a portion of the first electrode pattern is in contact with and overlays an edge of the at least one first via hole (K1); the first electrode pattern is in contact with the gate electrode through the at least one first via hole (K1); characterized in that the first electrode pattern comprises a second via hole (K2) located at a bottom of the first via hole (K1), and the gate electrode is exposed at the second via hole (K2). a base substrate ; a peripheral circuit located on the base substrate , the peripheral circuit comprising a first circuit , a second circuit and a third circuit , and the first circuit , the second circuit and the third circuit respectively comprising a first electrode pattern , a second electrode pattern and a third electrode pattern; and a protection structure, located in at least one circuit of the first circuit , the second circuit and the third circuit and configured for preventing an electrode pattern located in the at least one circuit from being disconnected, wherein the protection structure comprises a first protection structure located in the first circuit , the first protection structure comprises a gate electrode , a dielectric layer and the first electrode pattern sequentially provided on the base substrate ; the dielectric layer comprises at least one first via hole (K1), at least a portion of the first electrode pattern is in contact with and overlays an edge of the at least one first via hole (K1); the first electrode pattern is in contact with the gate electrode through the at least one first via hole (K1); characterized in that the first electrode pattern comprises a second via hole (K2) located at a bottom of the first via hole (K1), and the gate electrode is exposed at the second via hole (K2).
A microwave ablation system , comprising: an introducer having a lumen therethrough; a stylus configured for slidable engagement within the lumen of the introducer; and a microwave ablation antenna configured to deliver energy to a target during an ablation procedure, wherein the microwave ablation antenna is configured for slidable engagement within the lumen of the introducer, wherein the microwave ablation antenna includes first and second fluid channels for connecting respectively to a fluid inlet port and a fluid outlet port ; and wherein the introducer is formed from a non-conductive material, characterized in that the microwave ablation antenna is configured to radiate through the introducer. an introducer having a lumen therethrough; a stylus configured for slidable engagement within the lumen of the introducer; and a microwave ablation antenna configured to deliver energy to a target during an ablation procedure, wherein the microwave ablation antenna is configured for slidable engagement within the lumen of the introducer, wherein the microwave ablation antenna includes first and second fluid channels for connecting respectively to a fluid inlet port and a fluid outlet port ; and wherein the introducer is formed from a non-conductive material, characterized in that the microwave ablation antenna is configured to radiate through the introducer.
A device , comprising: a rear display configured to produce an image, the rear display being a light emitting layer including a plurality of pixels; and a front display being non-emissive and transparent and including a plurality of pixels that are electronically controllable between a diffusing state and a transparent state so as to selectively diffuse light associated with the image produced by the rear display ; a display controller comprising a processor and a memory , the processor configured to control operation of the rear display and front display ; wherein the rear display and front display are aligned such that the pixels of the rear display are aligned with the pixels of the front display such that their borders are situated directly over or under one another; the device being characterized in that the processor is configured to receive an image signal specifying image data representing an original content of an image to be produced by the rear display , and analyze the image so as to detect inappropriate content; instruct the rear display to display the image based on the image data such that the original content is not modified; and control selected pixels of the plurality of pixels of the front display to selectively diffuse light to produce one or more blurring effects to regions of the image of the rear display so as to hide or mask regions of the rear display determined to display inappropriate content. a rear display configured to produce an image, the rear display being a light emitting layer including a plurality of pixels; and a front display being non-emissive and transparent and including a plurality of pixels that are electronically controllable between a diffusing state and a transparent state so as to selectively diffuse light associated with the image produced by the rear display ; a display controller comprising a processor and a memory , the processor configured to control operation of the rear display and front display ; wherein the rear display and front display are aligned such that the pixels of the rear display are aligned with the pixels of the front display such that their borders are situated directly over or under one another; the device being characterized in that the processor is configured to receive an image signal specifying image data representing an original content of an image to be produced by the rear display , and analyze the image so as to detect inappropriate content; instruct the rear display to display the image based on the image data such that the original content is not modified; and control selected pixels of the plurality of pixels of the front display to selectively diffuse light to produce one or more blurring effects to regions of the image of the rear display so as to hide or mask regions of the rear display determined to display inappropriate content.
A power cable comprising: a stranded conductor including a plurality of wires; an inner semiconducting layer covering the stranded conductor ; and an insulating layer covering the inner semiconducting layer , wherein the stranded conductor comprises a plurality of conductor layers formed by arranging a plurality of wires in a circumferential direction of a center wire, the plurality of conductor layers comprise: an outermost conductor layer , and at least one inner conductor layer inside the outermost conductor layer , the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more. a stranded conductor including a plurality of wires; an inner semiconducting layer covering the stranded conductor ; and an insulating layer covering the inner semiconducting layer , wherein the stranded conductor comprises a plurality of conductor layers formed by arranging a plurality of wires in a circumferential direction of a center wire, the plurality of conductor layers comprise: an outermost conductor layer , and at least one inner conductor layer inside the outermost conductor layer , the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more. an outermost conductor layer , and at least one inner conductor layer inside the outermost conductor layer , the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more.
A method of forming a liquid-forged article , the method comprising: introducing a melt into a die cavity ; moving a punch relative to the die cavity such that the melt enters at least one high aspect ratio cavity in the punch and air is released via at least one air vent insert in the punch , the high aspect ratio cavity having a height to width ratio greater than 40:1, wherein air is released through a gas exhaust passage defined by the air vent insert with the high aspect ratio cavity , the air vent insert comprising a head portion and an insert portion , the head portion being configured for positioning the air vent insert relative to the high aspect ratio cavity and the insert portion being configured for extending into the high aspect ratio cavity , the air vent insert being made of a metal; and exerting a forming pressure on the melt while the melt solidifies in the high aspect ratio cavity , wherein the melt is rapidly cooled as the melt comes into contact with the air vent insert . introducing a melt into a die cavity ; moving a punch relative to the die cavity such that the melt enters at least one high aspect ratio cavity in the punch and air is released via at least one air vent insert in the punch , the high aspect ratio cavity having a height to width ratio greater than 40:1, wherein air is released through a gas exhaust passage defined by the air vent insert with the high aspect ratio cavity , the air vent insert comprising a head portion and an insert portion , the head portion being configured for positioning the air vent insert relative to the high aspect ratio cavity and the insert portion being configured for extending into the high aspect ratio cavity , the air vent insert being made of a metal; and exerting a forming pressure on the melt while the melt solidifies in the high aspect ratio cavity , wherein the melt is rapidly cooled as the melt comes into contact with the air vent insert .