mhurhangee/ep-ind-claims huggingface dataset:
A battery charging method comprising: determining a setting value of charging control information based on an overpotential value and a voltage value of a battery; applying the setting value in the charging control information; and controlling (740, 750, 760) a voltage applied to charge the battery based on the charging control information that applies the setting value, wherein the determining of the setting value comprises deriving a time value corresponding to a sum of the voltage value and the overpotential value based on an inverse function of a voltage function of the charging control information, and determining the time value as a shift value to shift the voltage function, and wherein applying of the setting value comprises shifting the voltage function based on the shift value. determining a setting value of charging control information based on an overpotential value and a voltage value of a battery; applying the setting value in the charging control information; and controlling (740, 750, 760) a voltage applied to charge the battery based on the charging control information that applies the setting value, wherein the determining of the setting value comprises deriving a time value corresponding to a sum of the voltage value and the overpotential value based on an inverse function of a voltage function of the charging control information, and determining the time value as a shift value to shift the voltage function, and wherein applying of the setting value comprises shifting the voltage function based on the shift value.
A polling and detecting method for a Passive Optical Network, PON, including Optical Network Units, ONUs, comprising: polling and detecting ONUs in an ONU polling queue, characterised by dividing Optical Line Terminals, OLTs, and Optical Network Units, ONUs, in the Passive Optical Network, PON, into an OLT polling queue and the ONU polling queue respectively; polling and detecting the OLTs in the OLT polling queue; and updating states of the OLTs after polling into an OLT state database; and in that the ONUs in the ONU polling queue are polled and detected based on states of the OLTs in the updated OLT state database. polling and detecting ONUs in an ONU polling queue, characterised by dividing Optical Line Terminals, OLTs, and Optical Network Units, ONUs, in the Passive Optical Network, PON, into an OLT polling queue and the ONU polling queue respectively; polling and detecting the OLTs in the OLT polling queue; and updating states of the OLTs after polling into an OLT state database; and in that the ONUs in the ONU polling queue are polled and detected based on states of the OLTs in the updated OLT state database.
A disk for a gas turbine compressor, comprising: a root part assembled to a rotary shaft; a circular base plate extending radially from the root part and having a thickness smaller than that of the root part in a direction of the rotary shaft; a disk rim forming an outer periphery of the circular base plate and extending bidirectionally in a direction parallel to the direction of the rotary shaft; and a circular hirth part protruding bidirectionally from the base plate in a direction parallel to the direction of the rotary shaft and positioned between the root part and the disk rim, wherein a protruding height of the hirth part in the direction of the rotary shaft from a center line of the base plate is longer than protruding heights of the disk rim and the root part in the direction of the rotary shaft from the center line of the base plate to form a space for discharge of air, and wherein the circular hirth part comprises a plurality of grooves for introduction of air formed at an end thereof, the grooves being circumferentially spaced apart from each other, and at least one partition wall is formed to extend from the root part to the hirth part, wherein the partition wall comprises - a bonding portion having the same height as a protruding height of the hirth part from the base plate, and - an inclined portion extending from the bonding portion to the root part and having a height gradually lowered. a root part assembled to a rotary shaft; a circular base plate extending radially from the root part and having a thickness smaller than that of the root part in a direction of the rotary shaft; a disk rim forming an outer periphery of the circular base plate and extending bidirectionally in a direction parallel to the direction of the rotary shaft; and a circular hirth part protruding bidirectionally from the base plate in a direction parallel to the direction of the rotary shaft and positioned between the root part and the disk rim, wherein a protruding height of the hirth part in the direction of the rotary shaft from a center line of the base plate is longer than protruding heights of the disk rim and the root part in the direction of the rotary shaft from the center line of the base plate to form a space for discharge of air, and wherein the circular hirth part comprises a plurality of grooves for introduction of air formed at an end thereof, the grooves being circumferentially spaced apart from each other, and at least one partition wall is formed to extend from the root part to the hirth part, wherein the partition wall comprises - a bonding portion having the same height as a protruding height of the hirth part from the base plate, and - an inclined portion extending from the bonding portion to the root part and having a height gradually lowered. - a bonding portion having the same height as a protruding height of the hirth part from the base plate, and - an inclined portion extending from the bonding portion to the root part and having a height gradually lowered.
A system for acquiring evoked compound action potential (ECAP) recordings at a later session for a patient provided with a cochlear implant comprising an implanted array of cochlear electrodes, the system comprising: a receiving unit configured to receive, corresponding to an electrode of the implanted array of electrodes, a stored prior individual value from a plurality of stored prior individual values of evoked compound action potentials (ECAP) or an ECAP prior growth function corresponding to the stored plurality of prior individual values of the ECAP, the plurality of stored prior individual values or the ECAP prior growth function being obtained at a previous session; and a processing unit configured to process the received prior individual value or ECAP growth function to determine a stimulus signal value corresponding to the received individual value or a selected point on the ECAP prior growth function, instruct a signal delivery unit to provide to the electrode a first stimulus signal comprising a first level that is same or above said stimulus signal value, and determine a resulting evoked compound action potential generated in response to said first stimulus signal. a receiving unit configured to receive, corresponding to an electrode of the implanted array of electrodes, a stored prior individual value from a plurality of stored prior individual values of evoked compound action potentials (ECAP) or an ECAP prior growth function corresponding to the stored plurality of prior individual values of the ECAP, the plurality of stored prior individual values or the ECAP prior growth function being obtained at a previous session; and a processing unit configured to process the received prior individual value or ECAP growth function to determine a stimulus signal value corresponding to the received individual value or a selected point on the ECAP prior growth function, instruct a signal delivery unit to provide to the electrode a first stimulus signal comprising a first level that is same or above said stimulus signal value, and determine a resulting evoked compound action potential generated in response to said first stimulus signal. process the received prior individual value or ECAP growth function to determine a stimulus signal value corresponding to the received individual value or a selected point on the ECAP prior growth function, instruct a signal delivery unit to provide to the electrode a first stimulus signal comprising a first level that is same or above said stimulus signal value, and determine a resulting evoked compound action potential generated in response to said first stimulus signal.
A method of wireless communication, comprising: selecting a spreading factor for voice frames such that a spreading of the voice frames utilizing the selected spreading factor fills only a predetermined portion of a transmission time interval, TTI, that is less than the entirety of the TTI; transmitting voice frames corresponding to a circuit-switched voice call during the predetermined portion of the TTI that is less than an entirety of the TTI; and suspending the transmitting of voice frames during a remainder of the TTI following the predetermined portion of the TTI to enable discontinuous transmission, DTX, during the circuit-switched voice call; further comprising changing between a DTX configuration comprising the transmitting the voice frames during the predetermined portion of the TTI and suspending the transmitting the voice frames during the remainder of the TTI, and a non-DTX configuration comprising transmitting the voice frames during the entirety of the TTI, wherein the non-DTX configuration is selected if a transmitter power headroom is less than a threshold, and wherein the DTX configuration is selected if the transmitter power headroom is greater than the threshold. selecting a spreading factor for voice frames such that a spreading of the voice frames utilizing the selected spreading factor fills only a predetermined portion of a transmission time interval, TTI, that is less than the entirety of the TTI; transmitting voice frames corresponding to a circuit-switched voice call during the predetermined portion of the TTI that is less than an entirety of the TTI; and suspending the transmitting of voice frames during a remainder of the TTI following the predetermined portion of the TTI to enable discontinuous transmission, DTX, during the circuit-switched voice call; further comprising changing between a DTX configuration comprising the transmitting the voice frames during the predetermined portion of the TTI and suspending the transmitting the voice frames during the remainder of the TTI, and a non-DTX configuration comprising transmitting the voice frames during the entirety of the TTI, wherein the non-DTX configuration is selected if a transmitter power headroom is less than a threshold, and wherein the DTX configuration is selected if the transmitter power headroom is greater than the threshold.
A printing device comprising: a print head (110, 400, 530, 730) comprising a print engine (410, 710), including multiple nozzles (418, 712), and circuitry configured to selectively eject ink through the multiple nozzles (418, 712) to form an image on a moving substrate, and to purge the ink through the multiple nozzles (418, 712); and a printhead enclosure (424, 430, 460, 470, 510, 700) of the print head (110, 400, 530, 730), the printhead enclosure (424, 430, 460, 470, 510, 700) having an opening (422, 502, 720, 822) in front of the multiple nozzles (418, 712) to allow the selectively ejected ink to pass through the opening (422, 502, 720, 822) when the selectively ejected ink is ejected toward the moving substrate; wherein the printhead enclosure (424, 430, 460, 470, 510, 700) comprises a hole (480, 520) placed away from the multiple nozzles (418, 712), wherein the hole (480, 520) is located in a back half of the printhead enclosure, wherein the back half of the printhead enclosure is opposite the opening (422, 502, 720, 822); and wherein the printhead enclosure (424, 430, 460, 470, 510, 700) is configured to direct the ink that is purged through the multiple nozzles (418, 712) along an inside surface (490, 510) of the printhead enclosure (424, 430, 460, 470, 510, 700) to the hole (480, 520) through which the ink flows and exits the printhead enclosure (424, 430, 460, 470, 510, 700). a print head (110, 400, 530, 730) comprising a print engine (410, 710), including multiple nozzles (418, 712), and circuitry configured to selectively eject ink through the multiple nozzles (418, 712) to form an image on a moving substrate, and to purge the ink through the multiple nozzles (418, 712); and a printhead enclosure (424, 430, 460, 470, 510, 700) of the print head (110, 400, 530, 730), the printhead enclosure (424, 430, 460, 470, 510, 700) having an opening (422, 502, 720, 822) in front of the multiple nozzles (418, 712) to allow the selectively ejected ink to pass through the opening (422, 502, 720, 822) when the selectively ejected ink is ejected toward the moving substrate; wherein the printhead enclosure (424, 430, 460, 470, 510, 700) comprises a hole (480, 520) placed away from the multiple nozzles (418, 712), wherein the hole (480, 520) is located in a back half of the printhead enclosure, wherein the back half of the printhead enclosure is opposite the opening (422, 502, 720, 822); and wherein the printhead enclosure (424, 430, 460, 470, 510, 700) is configured to direct the ink that is purged through the multiple nozzles (418, 712) along an inside surface (490, 510) of the printhead enclosure (424, 430, 460, 470, 510, 700) to the hole (480, 520) through which the ink flows and exits the printhead enclosure (424, 430, 460, 470, 510, 700).
Layered glass assembly for optical light beam projection with three-dimensional depth perception as observed by a viewer, the layered structure comprising: - a display surface glass, which has a first refractive index and which is configured to refract a first section (LB-1) of a light beam at a first interface; - a first transition structure, which is configured to refract a second section (LB-2) of the light beam at a second interface; - a filler structure, which has a second refractive index and which is configured to refract a third section (LB-3) of the light beam at a third interface; - a second transition structure, which is configured to refract a fourth section (LB-4) of the light beam at a fourth interface; - a front glass, which has a third refractive index and which is configured to project the refracted light beam, characterised in that - the second refractive index is different from the first refractive index and from the third refractive index, and is larger than the first refractive index and larger than the third refractive index, and in that the front glass, at the fourth interface, is shaped with raised or sunken area portions (105-1, 105-2, 105-3) or a relief structure generating the three-dimensional depth perception, and/ or the display surface glass, at the first interface, is shaped with raised or sunken area portions or a relief structure generating the three-dimensional depth perception. - a display surface glass, which has a first refractive index and which is configured to refract a first section (LB-1) of a light beam at a first interface; - a first transition structure, which is configured to refract a second section (LB-2) of the light beam at a second interface; - a filler structure, which has a second refractive index and which is configured to refract a third section (LB-3) of the light beam at a third interface; - a second transition structure, which is configured to refract a fourth section (LB-4) of the light beam at a fourth interface; - a front glass, which has a third refractive index and which is configured to project the refracted light beam, characterised in that - the second refractive index is different from the first refractive index and from the third refractive index, and is larger than the first refractive index and larger than the third refractive index, and in that the front glass, at the fourth interface, is shaped with raised or sunken area portions (105-1, 105-2, 105-3) or a relief structure generating the three-dimensional depth perception, and/ or the display surface glass, at the first interface, is shaped with raised or sunken area portions or a relief structure generating the three-dimensional depth perception.
A device for fluid power recuperation comprising at least one hydropneumatic accumulator containing in its shell a fluid port communicating with a fluid reservoir of the accumulator separated by a movable separator from a gas reservoir of the accumulator that communicates via its gas port with a gas port of at least one gas receiver containing a regenerating heat exchanger, characterized in that the regenerating heat exchanger is made in the form of a metal porous structure, while the aggregate volume of the material of the regenerating heat exchanger is in the range from 10 to 50% of the internal receiver volume and the aggregate area of the heat exchange surfaces of the regenerating heat exchanger reduced to the aggregate internal receiver volume exceeds 2000 cm 2 / liter.
A compute sled for queue pair management comprising: virtual machine manager circuitry configured to: create a virtual machine to operate on the compute sled; and create each of a plurality of remote direct memory access, RDMA, queue pairs for the virtual machine; and resource controller circuitry configured to: assign a different quality of service, QoS, parameter to each of the plurality of RDMA queue pairs for the virtual machine; allocate bandwidth to each of the plurality of RDMA queue pairs for the virtual machine based on the corresponding QoS parameter; monitor telemetry data associated with at least one flow through the plurality of RDMA queue pairs; and update bandwidth allocation to one or more of the plurality of RDMA queue pairs based on the monitored telemetry data indicating whether the at least one flow is an elephant flow or a mouse flow. create a virtual machine to operate on the compute sled; and create each of a plurality of remote direct memory access, RDMA, queue pairs for the virtual machine; and resource controller circuitry configured to: assign a different quality of service, QoS, parameter to each of the plurality of RDMA queue pairs for the virtual machine; allocate bandwidth to each of the plurality of RDMA queue pairs for the virtual machine based on the corresponding QoS parameter; monitor telemetry data associated with at least one flow through the plurality of RDMA queue pairs; and update bandwidth allocation to one or more of the plurality of RDMA queue pairs based on the monitored telemetry data indicating whether the at least one flow is an elephant flow or a mouse flow. assign a different quality of service, QoS, parameter to each of the plurality of RDMA queue pairs for the virtual machine; allocate bandwidth to each of the plurality of RDMA queue pairs for the virtual machine based on the corresponding QoS parameter; monitor telemetry data associated with at least one flow through the plurality of RDMA queue pairs; and update bandwidth allocation to one or more of the plurality of RDMA queue pairs based on the monitored telemetry data indicating whether the at least one flow is an elephant flow or a mouse flow.
Vehicle underbody structure, comprising a floor panel, at least one longitudinal beam extending in a longitudinal direction of the vehicle under said floor panel and at least one lowerside sill part extending in the longitudinal direction adjacent to the floor panel, the vehicle underbody structure further comprising at least one reinforcement element extending in a transversal direction, substantially perpendicular to the longitudinal direction, said reinforcement element extending under the floor panel and being attached at one of its transversal ends to the longitudinal beam and at the other of its transversal ends to the lowerside sill part, characterized in that: - the reinforcement element is made of a press-hardened steel part having a tensile strength higher or equal to 1200 MPa, - the reinforcement element comprises a first flank extending in a plane substantially parallel to the floor panel and a second flank extending in a plane perpendicular to the first flank, said first and second flanks (20, 22) both joining the longitudinal beam to the lowerside sill part, the second flank extending in a plane forming a non-zero angle with the longitudinal direction. - the reinforcement element is made of a press-hardened steel part having a tensile strength higher or equal to 1200 MPa, - the reinforcement element comprises a first flank extending in a plane substantially parallel to the floor panel and a second flank extending in a plane perpendicular to the first flank, said first and second flanks (20, 22) both joining the longitudinal beam to the lowerside sill part, the second flank extending in a plane forming a non-zero angle with the longitudinal direction.
A process for dehydrating a chlorophenol salt feed mixture, the process comprising: providing a feed mixture comprising a chlorophenol salt, water, and an organic solvent; distilling the feed mixture within a distillation zone, thereby forming an overheads fraction comprising water and a portion of the organic solvent and a bottoms fraction comprising the chlorophenol salt and a portion of the organic solvent, the bottoms fraction being enriched in chlorophenol salt as compared to the overheads fraction; condensing the overheads fraction to form a recycle stream comprising recovered organic solvent and water; removing water from the recycle stream; and feeding the recycle stream comprising recovered organic solvent to the distillation zone, wherein the distillation zone comprises a column comprising one or more intermediate stages to which the feed mixture is fed, the distillation zone further comprising a rectifying zone comprising one or more rectifying stages above the one or more intermediate stages, and a stripping zone comprising one or more stripping stages below the one or more intermediate stages, and wherein the distillation zone is operated such that the overheads fraction is removed from the distillation zone while the recycle stream is fed to the rectifying zone. providing a feed mixture comprising a chlorophenol salt, water, and an organic solvent; distilling the feed mixture within a distillation zone, thereby forming an overheads fraction comprising water and a portion of the organic solvent and a bottoms fraction comprising the chlorophenol salt and a portion of the organic solvent, the bottoms fraction being enriched in chlorophenol salt as compared to the overheads fraction; condensing the overheads fraction to form a recycle stream comprising recovered organic solvent and water; removing water from the recycle stream; and feeding the recycle stream comprising recovered organic solvent to the distillation zone, wherein the distillation zone comprises a column comprising one or more intermediate stages to which the feed mixture is fed, the distillation zone further comprising a rectifying zone comprising one or more rectifying stages above the one or more intermediate stages, and a stripping zone comprising one or more stripping stages below the one or more intermediate stages, and wherein the distillation zone is operated such that the overheads fraction is removed from the distillation zone while the recycle stream is fed to the rectifying zone.