mhurhangee/patent-ind-claim-en huggingface dataset:
A battery energy management method for a hybrid vehicle, characterized in that : acquiring, for a vehicle usage circulation, a historical cutoff remaining state of charge value and a historical maximum power demand, wherein one vehicle usage circulation is a circulation from a last charging completion to a next charging starting; predicting a next cutoff remaining state of charge value according to the historical cutoff remaining state of charge value; predicting, according to the historical maximum power demand, a lower limit value of a next remaining state of charge threshold for switching from a power consumption mode to a power holding mode; determining a lager one of the predicted next cutoff remaining state of charge value and the lower limit value of the remaining state of charge threshold as a next remaining state of charge threshold for switching from the power consumption mode to the power holding mode; and sending, to the hybrid vehicle, the determined next remaining state of charge threshold for switching from the power consumption mode to the power holding mode. acquiring, for a vehicle usage circulation, a historical cutoff remaining state of charge value and a historical maximum power demand, wherein one vehicle usage circulation is a circulation from a last charging completion to a next charging starting; predicting a next cutoff remaining state of charge value according to the historical cutoff remaining state of charge value; predicting, according to the historical maximum power demand, a lower limit value of a next remaining state of charge threshold for switching from a power consumption mode to a power holding mode; determining a lager one of the predicted next cutoff remaining state of charge value and the lower limit value of the remaining state of charge threshold as a next remaining state of charge threshold for switching from the power consumption mode to the power holding mode; and sending, to the hybrid vehicle, the determined next remaining state of charge threshold for switching from the power consumption mode to the power holding mode.
A headphone comprising: an earbud body having an internal volume comprising a first acoustic chamber and a second acoustic chamber; an acoustic element disposed in the internal volume between the first acoustic chamber and the second acoustic chamber; and a dielectric substrate disposed in the internal volume and having a length extending from a first end in the first acoustic chamber to a second end in the second acoustic chamber, the dielectric substrate comprising an upper surface, a lower surface and a channel disposed between the upper and lower surfaces, the dielectric substrate having a first aperture and a second aperture each extending into a thickness of the substrate from one of the upper and lower surfaces, the channel extending from a first channel end at the first aperture to a second channel end at the second aperture, the first and second apertures opening into the first and second acoustic chambers, respectively, the channel and the first and second apertures defining an acoustic channel between the first and second acoustic chambers that acoustically couples the first and second acoustic chambers to each other, wherein the dielectric substrate is a flexible dielectric substrate. an earbud body having an internal volume comprising a first acoustic chamber and a second acoustic chamber; an acoustic element disposed in the internal volume between the first acoustic chamber and the second acoustic chamber; and a dielectric substrate disposed in the internal volume and having a length extending from a first end in the first acoustic chamber to a second end in the second acoustic chamber, the dielectric substrate comprising an upper surface, a lower surface and a channel disposed between the upper and lower surfaces, the dielectric substrate having a first aperture and a second aperture each extending into a thickness of the substrate from one of the upper and lower surfaces, the channel extending from a first channel end at the first aperture to a second channel end at the second aperture, the first and second apertures opening into the first and second acoustic chambers, respectively, the channel and the first and second apertures defining an acoustic channel between the first and second acoustic chambers that acoustically couples the first and second acoustic chambers to each other, wherein the dielectric substrate is a flexible dielectric substrate. the dielectric substrate comprising an upper surface, a lower surface and a channel disposed between the upper and lower surfaces, the dielectric substrate having a first aperture and a second aperture each extending into a thickness of the substrate from one of the upper and lower surfaces, the channel extending from a first channel end at the first aperture to a second channel end at the second aperture, the first and second apertures opening into the first and second acoustic chambers, respectively, the channel and the first and second apertures defining an acoustic channel between the first and second acoustic chambers that acoustically couples the first and second acoustic chambers to each other, wherein the dielectric substrate is a flexible dielectric substrate.
A force sensor, comprising: a first end portion ; a second end portion ; a parallel-guiding mechanism , the parallel-guiding mechanism being used for connecting the first end portion to the second end portion ; a beam , the beam comprising a main beam , provided with a cavity arranged between an upper wall , a lower wall , a flexible left wall and a rigid right wall of the main beam ; a first connecting part , for connecting the main beam to the first end portion , being a rigid beam; and a second connecting part , for connecting the main beam to the second end portion , being a flexible beam; wherein the flexible left wall is connected to the first connecting part , and the rigid right wall is connected to the second connecting part ; and a strain gauge , the strain gauge being fixed to the flexible left wall . a first end portion ; a second end portion ; a parallel-guiding mechanism , the parallel-guiding mechanism being used for connecting the first end portion to the second end portion ; a beam , the beam comprising a main beam , provided with a cavity arranged between an upper wall , a lower wall , a flexible left wall and a rigid right wall of the main beam ; a first connecting part , for connecting the main beam to the first end portion , being a rigid beam; and a second connecting part , for connecting the main beam to the second end portion , being a flexible beam; wherein the flexible left wall is connected to the first connecting part , and the rigid right wall is connected to the second connecting part ; and a main beam , provided with a cavity arranged between an upper wall , a lower wall , a flexible left wall and a rigid right wall of the main beam ; a first connecting part , for connecting the main beam to the first end portion , being a rigid beam; and a second connecting part , for connecting the main beam to the second end portion , being a flexible beam; wherein the flexible left wall is connected to the first connecting part , and the rigid right wall is connected to the second connecting part ; and a strain gauge , the strain gauge being fixed to the flexible left wall .
A method for detecting people, the method being performed by a people detector provided by a doorway , wherein the people detector comprises an energy harvesting device for capturing energy from door opening and/or door closing, the method comprising the steps of: converting, using the energy harvesting module, mechanical energy from door kinetics to electric energy stored in a battery of the people detector; receiving an open signal indicating that a door of the doorway is open; setting a people sensor of the people detector in an active mode based on receiving the open signal; detecting when a person passes through the doorway, using the people sensor , which comprises detecting a direction of the person passing through the doorway; receiving a closed signal indicating that the door of the doorway is closed; transmitting a result of the step of detecting, wherein the step of transmitting is performed based on receiving the closed signal, wherein the result contains a counter of all entries and a counter of all exits, since the last transmitted result; and setting the people sensor in a power save mode based on receiving the closed signal. converting, using the energy harvesting module, mechanical energy from door kinetics to electric energy stored in a battery of the people detector; receiving an open signal indicating that a door of the doorway is open; setting a people sensor of the people detector in an active mode based on receiving the open signal; detecting when a person passes through the doorway, using the people sensor , which comprises detecting a direction of the person passing through the doorway; receiving a closed signal indicating that the door of the doorway is closed; transmitting a result of the step of detecting, wherein the step of transmitting is performed based on receiving the closed signal, wherein the result contains a counter of all entries and a counter of all exits, since the last transmitted result; and setting the people sensor in a power save mode based on receiving the closed signal.
A planetary mill comprising: a self-balancing milling assembly comprising a pair of elongate floating milling chambers arranged in parallel to and on opposite sides of a main axis (A) wherein said milling chambers are free to move outwards in a direction radial to said main axis (A); a drive assembly for rotating said milling assembly in a first direction of rotation about said main axis (A); and at least one belt surrounding said pair of floating milling chambers such that when said milling assembly rotates about said main axis (A), said at least one belt limits a radial travel outwards of each of said milling chambers , wherein said at least one belt and said milling chambers are made of a heat conducting material, wherein said milling chambers produce heat during milling and further wherein said at least one belt cools an outer surface of said milling chambers by conducting said heat away from said milling chambers . a self-balancing milling assembly comprising a pair of elongate floating milling chambers arranged in parallel to and on opposite sides of a main axis (A) wherein said milling chambers are free to move outwards in a direction radial to said main axis (A); a drive assembly for rotating said milling assembly in a first direction of rotation about said main axis (A); and at least one belt surrounding said pair of floating milling chambers such that when said milling assembly rotates about said main axis (A), said at least one belt limits a radial travel outwards of each of said milling chambers , wherein said at least one belt and said milling chambers are made of a heat conducting material, wherein said milling chambers produce heat during milling and further wherein said at least one belt cools an outer surface of said milling chambers by conducting said heat away from said milling chambers .
A tire post-inflation apparatus, comprising a stand and a plurality of station mechanisms staggeredly disposed on the stand , wherein each of the plurality of station mechanisms comprises: a cross beam connected to the stand , wherein the cross beam is configured to be connected to a first rim ; a swing arm rotatably connected to the stand , wherein the swing arm is configured to be connected to a second rim and a tire ; and a tension bearing assembly configured to bear tension of the first rim and tension of the second rim when the tire is inflated; characterized in that : the tension bearing assembly comprises a buckle member and a locking rod , the buckle member is disposed on the cross beam , the buckle member is connected to the first rim , the locking rod is rotatably disposed on the swing arm , the locking rod is inserted into the second rim and the tire , and the locking rod is able to extend into the buckle member and be locked with the buckle member to bear the tension of the first rim and the tension of the second rim when the tire is inflated. a cross beam connected to the stand , wherein the cross beam is configured to be connected to a first rim ; a swing arm rotatably connected to the stand , wherein the swing arm is configured to be connected to a second rim and a tire ; and a tension bearing assembly configured to bear tension of the first rim and tension of the second rim when the tire is inflated; characterized in that : the tension bearing assembly comprises a buckle member and a locking rod , the buckle member is disposed on the cross beam , the buckle member is connected to the first rim , the locking rod is rotatably disposed on the swing arm , the locking rod is inserted into the second rim and the tire , and the locking rod is able to extend into the buckle member and be locked with the buckle member to bear the tension of the first rim and the tension of the second rim when the tire is inflated.
A method of establishing an asymmetric network between at least one node device and a gateway device, comprising: transmitting a reduced data package from the node device, the reduced data package including at least payload bits, but omitting at least one of preamble bits and sync bits; receiving the reduced data package in a data stream at the gateway device; oversampling the data stream; storing the oversampled data stream in a memory; and performing iterative sync functions on time-shifted instances of the oversampled data stream to validate and retrieve one or more of the payload bits and any one or more of cyclic redundancy check, CRC, bits and authentication codes comprised within the reduced data package. transmitting a reduced data package from the node device, the reduced data package including at least payload bits, but omitting at least one of preamble bits and sync bits; receiving the reduced data package in a data stream at the gateway device; oversampling the data stream; storing the oversampled data stream in a memory; and performing iterative sync functions on time-shifted instances of the oversampled data stream to validate and retrieve one or more of the payload bits and any one or more of cyclic redundancy check, CRC, bits and authentication codes comprised within the reduced data package.
An electric machine defining an axial direction (A), a radial direction (R), and a circumferential direction (C), the electric machine comprising: a rotor disk rotatable about the axial direction (A); a rotor flange attached to or formed integrally with the rotor disk and extending from the rotor disk substantially along the axial direction (A); a plurality of rotor magnets mounted to the rotor flange ; and a stator assembly comprising: an armature winding ; a tracking tooth movable along the radial direction (R) with respect to the armature winding , the tracking tooth being operable with the rotor magnets to produce a torque, the tracking tooth being spaced apart from the rotor magnets along the radial direction (R) to define an air gap ; and an actuator assembly operable with the tracking tooth for moving the tracking tooth along the radial direction (R) with respect to the armature winding to adjust a height of the air gap ; wherein the actuator assembly comprises a unison ring having a slanted profile relative to the axial direction (A), wherein the tracking tooth is slidably coupled to the unison ring such that moving the unison ring along the axial direction (A) moves the tracking tooth along the radial direction (R). a rotor disk rotatable about the axial direction (A); a rotor flange attached to or formed integrally with the rotor disk and extending from the rotor disk substantially along the axial direction (A); a plurality of rotor magnets mounted to the rotor flange ; and a stator assembly comprising: an armature winding ; a tracking tooth movable along the radial direction (R) with respect to the armature winding , the tracking tooth being operable with the rotor magnets to produce a torque, the tracking tooth being spaced apart from the rotor magnets along the radial direction (R) to define an air gap ; and an actuator assembly operable with the tracking tooth for moving the tracking tooth along the radial direction (R) with respect to the armature winding to adjust a height of the air gap ; wherein an armature winding ; a tracking tooth movable along the radial direction (R) with respect to the armature winding , the tracking tooth being operable with the rotor magnets to produce a torque, the tracking tooth being spaced apart from the rotor magnets along the radial direction (R) to define an air gap ; and an actuator assembly operable with the tracking tooth for moving the tracking tooth along the radial direction (R) with respect to the armature winding to adjust a height of the air gap ; wherein the actuator assembly comprises a unison ring having a slanted profile relative to the axial direction (A), wherein the tracking tooth is slidably coupled to the unison ring such that moving the unison ring along the axial direction (A) moves the tracking tooth along the radial direction (R).
A method of wireless communications at a user equipment, UE, comprising: receiving , from a base station, a radio resource control, RRC, configuration indicating multiple UE-specific UCI resource sets that are subsets of a resource pool of the base station; receiving , from the base station, a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration; selecting a UE-specific UCI resource set from the multiple UE-specific UCI resource sets for transmitting UCI on a PUCCH based, at least in part, on an uplink channel information, UCI, payload size; determining , at the UE, one or more ACK/NACK resources from the selected UE-specific UCI resource set for the PUCCH, based, at least in part, on the ACK/NACK resource configuration; receiving, from the base station, user data on a physical downlink shared channel, PDSCH; and transmitting , from the UE to the base station, an ACK/NACK on the PUCCH for the PDSCH on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration. receiving , from a base station, a radio resource control, RRC, configuration indicating multiple UE-specific UCI resource sets that are subsets of a resource pool of the base station; receiving , from the base station, a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration; selecting a UE-specific UCI resource set from the multiple UE-specific UCI resource sets for transmitting UCI on a PUCCH based, at least in part, on an uplink channel information, UCI, payload size; determining , at the UE, one or more ACK/NACK resources from the selected UE-specific UCI resource set for the PUCCH, based, at least in part, on the ACK/NACK resource configuration; receiving, from the base station, user data on a physical downlink shared channel, PDSCH; and transmitting , from the UE to the base station, an ACK/NACK on the PUCCH for the PDSCH on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration.
A thermoplastic resin composition comprising: a thermoplastic resin (A); a pitch-based carbon fiber (B); graphite (C), and a PAN-based carbon fiber (D), wherein a content rate of the pitch-based carbon fiber (B) is 30% by mass or more in 100% by mass of the thermoplastic resin composition, and a content rate of the graphite (C) is 1% by mass or more and 20% by mass or less in 100% by mass of the thermoplastic resin composition. a thermoplastic resin (A); a pitch-based carbon fiber (B); graphite (C), and a PAN-based carbon fiber (D), wherein a content rate of the pitch-based carbon fiber (B) is 30% by mass or more in 100% by mass of the thermoplastic resin composition, and a content rate of the graphite (C) is 1% by mass or more and 20% by mass or less in 100% by mass of the thermoplastic resin composition.
Airborne sound transducer comprising - an electromechanical transducer , - an air impedance matching layer arranged on an acoustically active surface of the electromechanical transducer, and - a cover arranged on the air impedance matching layer , the cover forming an exposed acoustic area of the airborne sound transducer by means of an outer surface , characterised in that the outer surface is hydrophilic, wherein a contact angle , when wetting the outer surface with water , is less than 60°. - an electromechanical transducer , - an air impedance matching layer arranged on an acoustically active surface of the electromechanical transducer, and - a cover arranged on the air impedance matching layer , the cover forming an exposed acoustic area of the airborne sound transducer by means of an outer surface ,
A cage for pets of rodent type like rabbits, guinea pigs or the like, formed by the reciprocal conjunction of a series of grilled walls in a substantially parallelepiped arrangement applied to a basin type base, said cage being provided with a window opening obtained on at least one of the grilled walls of the cage, the cage comprising at least one ladder-like closing element having a shape and dimensions corresponding to those of the window opening in which it is insertable to be closed characterised in that the ladder-like closing element is removable from said window opening to assume a configuration of a ramp that may be placed between an edge by the opening of the cage and an inner surface thereof and/or an outer surface adjacent thereto, and in that said ladder-like closing element has two end edges configured as a recess.
A process for the preparation of ethene by vapour phase chemical dehydration of ethanol using an adiabatic reactor, wherein the interior of the adiabatic reactor is separated into at least three reaction zones, comprising a first reaction zone, at least one intermediate reaction zone and a final reaction zone, and wherein each zone contains an ethanol dehydration catalyst; said process comprising the steps of; a) feeding a pre-heated reactant feed-stream into an inlet of the first reaction zone; b) extracting an effluent-stream from an outlet of the first reaction zone; c) feeding said effluent-stream into an inlet of a subsequent intermediate reaction zone; d) extracting an effluent-stream from an outlet of the intermediate reaction zone; e) repeating steps (c) and (d) for any subsequent intermediate reaction zones, if present; f) feeding, into an inlet of the final reaction zone, the effluent-stream from the preceding intermediate reaction zone; g) extracting a product stream from an outlet of the final reaction zone; wherein the effluent-streams are re-heated prior to being fed into a subsequent reaction zone by means of one or more heat exchangers; and wherein a single heat exchanger simultaneously re-heats at least two of the effluent-streams, such that no more than one heat exchanger is present for every two effluent-streams being re-heated in the process. a) feeding a pre-heated reactant feed-stream into an inlet of the first reaction zone; b) extracting an effluent-stream from an outlet of the first reaction zone; c) feeding said effluent-stream into an inlet of a subsequent intermediate reaction zone; d) extracting an effluent-stream from an outlet of the intermediate reaction zone; e) repeating steps (c) and (d) for any subsequent intermediate reaction zones, if present; f) feeding, into an inlet of the final reaction zone, the effluent-stream from the preceding intermediate reaction zone; g) extracting a product stream from an outlet of the final reaction zone; wherein the effluent-streams are re-heated prior to being fed into a subsequent reaction zone by means of one or more heat exchangers; and wherein a single heat exchanger simultaneously re-heats at least two of the effluent-streams, such that no more than one heat exchanger is present for every two effluent-streams being re-heated in the process.