mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: detecting, by a radio access network equipment, that a data flow is associated with bidirectional video; determining (503, 504, 505, 506), by the radio access network equipment, based on radio access network conditions information, at least one delay associated with the data flow; determining, by the radio access network equipment, based on the at least one delay, at least one predicted encoding rate associated with the bidirectional video, wherein determining the at least one predicted encoding rate based on the at least one delay is performed using at least one model or a lookup table, wherein the at least one model or the lookup table is configured to predict encoding rates for use by an application that generates the data flow based on input features including the at least one delay; and allocating, by the radio access network equipment, radio access network resources to the data flow based on the at least one predicted encoding rate. detecting, by a radio access network equipment, that a data flow is associated with bidirectional video; determining (503, 504, 505, 506), by the radio access network equipment, based on radio access network conditions information, at least one delay associated with the data flow; determining, by the radio access network equipment, based on the at least one delay, at least one predicted encoding rate associated with the bidirectional video, wherein determining the at least one predicted encoding rate based on the at least one delay is performed using at least one model or a lookup table, wherein the at least one model or the lookup table is configured to predict encoding rates for use by an application that generates the data flow based on input features including the at least one delay; and allocating, by the radio access network equipment, radio access network resources to the data flow based on the at least one predicted encoding rate.
A mobile communications device (210, 220, 230, 240), comprising at least one processor (211, 221, 231, 241 configured to cause: switching from a cellular communications mode to an out of band communications mode in response to an indication of an at least partial cell outage event or a maintenance event, and based on mobile communications device specific out of band communication proximity information generated for the mobile communications device (210, 220, 230, 240) received from a cellular network base station during start-up of the mobile communication device, wherein the at least one processor (211, 221, 231, 241 is further configured to cause: performing communications as needed in said out of band communications mode; and switching from the out of band communications mode back to the cellular communications mode in response to receiving a message to switch back to the cellular communications mode. switching from a cellular communications mode to an out of band communications mode in response to an indication of an at least partial cell outage event or a maintenance event, and based on mobile communications device specific out of band communication proximity information generated for the mobile communications device (210, 220, 230, 240) received from a cellular network base station during start-up of the mobile communication device, wherein the at least one processor (211, 221, 231, 241 is further configured to cause: performing communications as needed in said out of band communications mode; and switching from the out of band communications mode back to the cellular communications mode in response to receiving a message to switch back to the cellular communications mode. performing communications as needed in said out of band communications mode; and switching from the out of band communications mode back to the cellular communications mode in response to receiving a message to switch back to the cellular communications mode.
Upper body garment, in particular a shirt, a bodysuit, an undershirt or an oversleeve, comprising at least one compression region in which the upper body garment, when it is being worn, exerts a compression effect on the body of the wearer of the upper body garment, and comprising at least one stimulus-inducing structure which, when the garment is being worn, is arranged on an inner side of the upper body garment directed towards the body of the wearer of the upper body garment, wherein the stimulus-inducing structure comprises at least one stimulus-inducing functional element, and wherein at least one functional element comprises a knitted region of the upper body garment which, in terms of its knit construction, differs from a knitted region of the upper body garment adjoining the functional element and is configured as a plush, characterized in that, when the upper body garment is being worn, an outer contour of at least one stimulus-inducing structure corresponds substantially to an outer contour of the erector spinae muscle group, the triceps brachii muscles and/or the extensors of the forearm of the wearer.
A composition for use in delivering one or more heterologous compounds to a subject, the composition comprising a nanoparticle that comprises one or more heterologous compounds and a modified human papilloma virus L1 protein having reduced immunogenicity relative to wild-type HPV16, wherein the amino acid sequence of the modified HPV L1 protein corresponds to the amino acid sequence of SEQ ID NO: 1 comprising amino acid substitutions D273T, N285T and S288N.
A method comprising: generating data by an application specific integrated circuit, ASIC (105, 215, 305, 402), of a co-packaged optical-electrical chip, the co-packaged optical-electrical chip comprising one or more co-packaged optical modules (220, 340, 416) connected to the ASIC by integrated electrical paths; forward error correction, FEC, encoding the data by a plurality of FEC encoders (320, 404) in the ASIC; generating digital signal by mapping the data to symbol data by a plurality of symbol encoding circuits (325, 405) in the ASIC and processing the symbol data using a multi-in-multi-out, MIMO, digital signal processing, DSP, circuit (330, 406) in the ASIC; converting the digital signal to analog electrical signal using a plurality of digital to analog converters (335, 410) in the ASIC; transferring the analog electrical signal from the ASIC to co-packaged optical module using the integrated electrical paths in the co-packaged optical-electrical chip; and generating, using the one or more co-packaged optical modules, optical signal from the analog electrical signal by using the analog electrical signal to drive an optical modulator (343, 420) in the one or more co-packaged optical modules. generating data by an application specific integrated circuit, ASIC (105, 215, 305, 402), of a co-packaged optical-electrical chip, the co-packaged optical-electrical chip comprising one or more co-packaged optical modules (220, 340, 416) connected to the ASIC by integrated electrical paths; forward error correction, FEC, encoding the data by a plurality of FEC encoders (320, 404) in the ASIC; generating digital signal by mapping the data to symbol data by a plurality of symbol encoding circuits (325, 405) in the ASIC and processing the symbol data using a multi-in-multi-out, MIMO, digital signal processing, DSP, circuit (330, 406) in the ASIC; converting the digital signal to analog electrical signal using a plurality of digital to analog converters (335, 410) in the ASIC; transferring the analog electrical signal from the ASIC to co-packaged optical module using the integrated electrical paths in the co-packaged optical-electrical chip; and generating, using the one or more co-packaged optical modules, optical signal from the analog electrical signal by using the analog electrical signal to drive an optical modulator (343, 420) in the one or more co-packaged optical modules.
Method for inspecting a sample with an assembly comprising a scanning electron microscope and a light microscope, wherein the assembly comprises a sample holder for mounting a sample thereon, wherein the sample holder is arranged for inspecting the sample with both the scanning electron microscope and the light microscope, wherein the method comprising the steps of: capturing a light microscopy image of the sample in its position for imaging with the scanning electron microscope; determining a position and physical dimensions of a region of interest in the sample based on the light microscopy image; determining values to which the scanning electron microscope parameters need to be set to image the sample on the sample holder at a desired resolution, wherein the values to which the scanning electron microscope parameters need to be set to image the sample at a desired resolution are obtained by performing focusing procedures for the scanning electron microscope at a focusing area on the sample or on the sample holder, wherein the position of said focusing area is determined using the light microscope; and capturing a scanning electron microscope image of the region of interest in the sample, wherein the scan settings for recording the scanning electron microscope image are determined from said values and said position and physical dimensions of said region of interest. capturing a light microscopy image of the sample in its position for imaging with the scanning electron microscope; determining a position and physical dimensions of a region of interest in the sample based on the light microscopy image; determining values to which the scanning electron microscope parameters need to be set to image the sample on the sample holder at a desired resolution, wherein the values to which the scanning electron microscope parameters need to be set to image the sample at a desired resolution are obtained by performing focusing procedures for the scanning electron microscope at a focusing area on the sample or on the sample holder, wherein the position of said focusing area is determined using the light microscope; and capturing a scanning electron microscope image of the region of interest in the sample, wherein the scan settings for recording the scanning electron microscope image are determined from said values and said position and physical dimensions of said region of interest.
An on-board centralized system for regulating the pressure of the tyres of a motor-vehicle having at least two, steering or non-steering, driving wheels, wherein each driving wheel of the motor-vehicle is rigidly connected to a wheel spindle, which is rotatably supported on a wheel support and is connected in rotation to a respective axle shaft via a constant-velocity joint having an input member connected in rotation to said axle shaft and an output member rigidly connected to said wheel spindle, said system comprising: - a source of pressurized air; - pneumatic rotary joints, each associated to a driving wheel of the motor-vehicle; and - a circuit, which sets in communication the source of pressurized air with an inlet fitting of said pneumatic rotary joint, said circuit including a solenoid valve for opening or closing said communication, - wherein said output member of the constant-velocity joint and said wheel spindle have an internal duct for passage of air, and - wherein said internal duct has a first end that gives out onto an outer surface of said output member of the constant-velocity joint; said system being characterised in that: - the first end of said internal duct is connected by means of a flexible hose to an outlet fitting of the pneumatic rotary joint, and in that a second end of said internal duct gives out onto an end surface of the wheel spindle and communicates with a plenum of the driving wheel; and in that it further comprises: - means for connecting said plenum of the driving wheel with the inner chamber of the respective tyre. - a source of pressurized air; - pneumatic rotary joints, each associated to a driving wheel of the motor-vehicle; and - a circuit, which sets in communication the source of pressurized air with an inlet fitting of said pneumatic rotary joint, said circuit including a solenoid valve for opening or closing said communication, - wherein said output member of the constant-velocity joint and said wheel spindle have an internal duct for passage of air, and - wherein said internal duct has a first end that gives out onto an outer surface of said output member of the constant-velocity joint; - the first end of said internal duct is connected by means of a flexible hose to an outlet fitting of the pneumatic rotary joint, and in that a second end of said internal duct gives out onto an end surface of the wheel spindle and communicates with a plenum of the driving wheel; and in that it further comprises: - means for connecting said plenum of the driving wheel with the inner chamber of the respective tyre. - means for connecting said plenum of the driving wheel with the inner chamber of the respective tyre.
An aerodynamic panel for use on a road haulage trailer, the panel having: a first end, a second end, an upper edge, a lower edge, and a recessed airflow region located between said first and second ends (12, 14) and between said upper and lower edges (18, 20); wherein the panel has a front surface intended to be upright in use; wherein the recessed airflow region includes a base wall set back from said front surface and extending from said front surface towards said second end of the panel; wherein the recessed airflow region includes an upper side wall, a lower side wall, and wherein the base wall extends between said upper and lower side walls (36, 38), wherein at least one of the upper side wall or lower side wall defines a curved surface extending the length of the recessed region; wherein said curved surface has a width extending between said base wall and said front surface, said width increasing along the length of the recessed region, in a direction towards said second end of the panel, and wherein the recessed airflow region terminates at the second end of the panel, to define an open end of channel-shaped cross-section. a first end, a second end, an upper edge, a lower edge, and a recessed airflow region located between said first and second ends (12, 14) and between said upper and lower edges (18, 20); wherein the panel has a front surface intended to be upright in use; wherein the recessed airflow region includes a base wall set back from said front surface and extending from said front surface towards said second end of the panel; wherein the recessed airflow region includes an upper side wall, a lower side wall, and wherein the base wall extends between said upper and lower side walls (36, 38), wherein at least one of the upper side wall or lower side wall defines a curved surface extending the length of the recessed region; wherein said curved surface has a width extending between said base wall and said front surface, said width increasing along the length of the recessed region, in a direction towards said second end of the panel, and wherein the recessed airflow region terminates at the second end of the panel, to define an open end of channel-shaped cross-section.
A fan head part comprising a base (10a;102;204) and a fan head (12;104;202), the fan head (12;104;202) comprising a blade, a first electric motor connected to the blade, and a grill, the blade being able to rotate about a first axis (A;C;E), the fan head (12;104;202) being able to rotate about a second axis (B;D;F) and along a circumferential direction relative to the base (10a;102;204), and the second axis extending through the grill in a front-rear direction and being obliquely arranged relative to the first axis; characterized in that: the base (10a;102;204) is connected to the fan head (12;104;202) by a rotating shaft; the fan head (12;104;202) further comprises a second electric motor connected to the rotating shaft; the fan head (12;104;202) is arranged to integrally rotate about the second axis (B;D;F) relative to the base (10a;102;204) and along the circumferential direction relative to the base (10a;102;204); the second axis is arranged at a certain fixed angle relative to the first axis; and the fan head part further comprises a mounting portion for mounting the fan head (12;104;202) to the base (10a;102;204), the central axis of the mounting portion being obliquely arranged relative to the first axis (A;C;E), the mounting portion being provided with a second rotating shaft, the rotating shaft of the second electric motor is connected to the second rotating shaft, thereby driving the second rotating shaft to rotate. the base (10a;102;204) is connected to the fan head (12;104;202) by a rotating shaft; the fan head (12;104;202) further comprises a second electric motor connected to the rotating shaft; the fan head (12;104;202) is arranged to integrally rotate about the second axis (B;D;F) relative to the base (10a;102;204) and along the circumferential direction relative to the base (10a;102;204); the second axis is arranged at a certain fixed angle relative to the first axis; and the fan head part further comprises a mounting portion for mounting the fan head (12;104;202) to the base (10a;102;204), the central axis of the mounting portion being obliquely arranged relative to the first axis (A;C;E), the mounting portion being provided with a second rotating shaft, the rotating shaft of the second electric motor is connected to the second rotating shaft, thereby driving the second rotating shaft to rotate.
Process for the production of hydrogen from natural gas and water vapor comprising: - A stage in which a portion of the natural gas is sent to a vapor-reforming unit and another portion of the natural gas is sent directly to an autothermal reformer in a mixture with the effluent that is obtained from a vapor-reforming unit, with a water vapor/carbon ratio in the vapor-reforming unit of between 2.6 and 2.8, and a water vapor/carbon ratio in the autothermal reactor of between 1.7 and 1.9, - A vapor-reforming stage of the natural gas in a vapor-reforming unit, whereby said vapor-reforming unit comprising at least a reactor-exchanger in which the heat of the reactor-exchanger is provided by the flue gases of a gas turbine, heated in at least one combustion chamber that is arranged before said reactor-exchanger, - A stage for autothermal reforming of the stream that is obtained in the preceding stage as well as the portion of natural gas that is sent directly into an autothermal reformer, portion which is between 15% and 50%, - A vapor conversion stage of the synthesis gas that is obtained in the preceding stage, making it possible to convert the carbon monoxide and to increase the hydrogen stream, - A stage for recovering carbon dioxide that is present in the stream that is obtained in the vapor conversion stage, making it possible to separate the carbon dioxide from the hydrogen stream. - A stage in which a portion of the natural gas is sent to a vapor-reforming unit and another portion of the natural gas is sent directly to an autothermal reformer in a mixture with the effluent that is obtained from a vapor-reforming unit, with a water vapor/carbon ratio in the vapor-reforming unit of between 2.6 and 2.8, and a water vapor/carbon ratio in the autothermal reactor of between 1.7 and 1.9, - A vapor-reforming stage of the natural gas in a vapor-reforming unit, whereby said vapor-reforming unit comprising at least a reactor-exchanger in which the heat of the reactor-exchanger is provided by the flue gases of a gas turbine, heated in at least one combustion chamber that is arranged before said reactor-exchanger, - A stage for autothermal reforming of the stream that is obtained in the preceding stage as well as the portion of natural gas that is sent directly into an autothermal reformer, portion which is between 15% and 50%, - A vapor conversion stage of the synthesis gas that is obtained in the preceding stage, making it possible to convert the carbon monoxide and to increase the hydrogen stream, - A stage for recovering carbon dioxide that is present in the stream that is obtained in the vapor conversion stage, making it possible to separate the carbon dioxide from the hydrogen stream.
A method using a completed corrective action as evidence of a fault by a computing device, comprising: receiving equipment status evidence; determining an equipment fault based on the equipment status evidence; creating and ranking a list of potential failure modes based at least in part on the determined equipment fault; recommending a corrective action to correct the equipment fault based at least in part on the ranking of the potential failure modes; receiving additional equipment status evidence indicating that the recommended corrective action failed to correct the equipment fault; associating a detection probability and a false negative rate with the failed corrective action to create additional status evidence, wherein the detection probability corresponds to a component defect rate plus a modeling error factor and wherein the false negative rate corresponds to a ratio ((C-S)/C) having a numerator value of a number of times the corrective action was performed on a validated fault minus a number of instances where the corrective action successfully clears the validated fault and having a denominator value of the number of times the corrective action was performed on the validated fault; and re-ranking the list of potential failure modes for recommendation of a subsequent corrective action to be performed based on the additional status evidence. receiving equipment status evidence; determining an equipment fault based on the equipment status evidence; creating and ranking a list of potential failure modes based at least in part on the determined equipment fault; recommending a corrective action to correct the equipment fault based at least in part on the ranking of the potential failure modes; receiving additional equipment status evidence indicating that the recommended corrective action failed to correct the equipment fault; associating a detection probability and a false negative rate with the failed corrective action to create additional status evidence, wherein the detection probability corresponds to a component defect rate plus a modeling error factor and wherein the false negative rate corresponds to a ratio ((C-S)/C) having a numerator value of a number of times the corrective action was performed on a validated fault minus a number of instances where the corrective action successfully clears the validated fault and having a denominator value of the number of times the corrective action was performed on the validated fault; and re-ranking the list of potential failure modes for recommendation of a subsequent corrective action to be performed based on the additional status evidence.