mhurhangee/ep-ind-claims huggingface dataset:
An uplink, UL, multi-user, MU, transmitting method of a station, STA, in a Wireless Local Area Network, WLAN, system, the UL MU transmitting method comprising: receiving a trigger frame comprising resource unit allocation information for orthogonal frequency division multiple access, OFDMA, transmission; transmitting a UL MU Physical Protocol Data Unit, PPDU, (2321, 2322, 2323) based on the trigger frame; and receiving an ACK frame of the UL MU PPDU, wherein the trigger frame comprises a first legacy preamble and a first High Efficiency, HE, preamble, and the first HE preamble comprises a first HE-SIG-A field and a first HE-SIG-B field, and wherein the first HE-SIG-A field comprises first Transmission Opportunity, TXOP, duration information related to a first TXOP duration, and the first TXOP duration is set to include a time required to transmit the UL MU PPDU and the ACK frame. receiving a trigger frame comprising resource unit allocation information for orthogonal frequency division multiple access, OFDMA, transmission; transmitting a UL MU Physical Protocol Data Unit, PPDU, (2321, 2322, 2323) based on the trigger frame; and receiving an ACK frame of the UL MU PPDU, wherein the trigger frame comprises a first legacy preamble and a first High Efficiency, HE, preamble, and the first HE preamble comprises a first HE-SIG-A field and a first HE-SIG-B field, and wherein the first HE-SIG-A field comprises first Transmission Opportunity, TXOP, duration information related to a first TXOP duration, and the first TXOP duration is set to include a time required to transmit the UL MU PPDU and the ACK frame.
An electronic cigarette having a power chip, wherein the electronic cigarette comprises a vaporizer and a battery assembly which are connected with each other, wherein the vaporizer comprises a heating element for heating and vaporizing cigarette liquid, the battery assembly comprises a battery and a control circuit board, wherein the control circuit board is arranged with a control circuit, the control circuit comprises a microcontroller, the power chip, a microcontroller power supply unit, and a starting switch, which are respectively electrically connected with the microcontroller, and wherein the power chip is electrically connected with the battery and the heating element, characterised in that the control circuit is further arranged with a reference resistor connected with the heating element, the power chip is electrically connected with the reference resistor, the power chip has automatic closed-loop control for output, and the power chip is configured to perform automatic closed-loop control by determining a resistance value of the heating element and feedback signal for output voltage under a command of the microcontroller, to provide precisely adjustable output voltage to the heating element and enable the heating element to produce constant amount of vapor. the control circuit is further arranged with a reference resistor connected with the heating element, the power chip is electrically connected with the reference resistor, the power chip has automatic closed-loop control for output, and the power chip is configured to perform automatic closed-loop control by determining a resistance value of the heating element and feedback signal for output voltage under a command of the microcontroller, to provide precisely adjustable output voltage to the heating element and enable the heating element to produce constant amount of vapor.
A domestic organic waste composter comprising: - an inlet for receiving organic waste; - a grinder for grinding the organic waste, coupled to a first actuator; - a tank surmounted by the grinder and arranged to contain the organic waste grinded by the grinder; - a mixer arranged in the tank to mix the grinded organic waste contained in the tank, coupled to a second actuator; - an outlet arranged at the level of a bottom of the tank to recover a potting soil produced by composting the organic waste contained in the tank; - an aeration system comprising: ∘ an air inlet at least partially surmounting the tank and containing a fan; ∘ orifices for circulating air in the tank, at the level of the bottom of the tank; ∘ an air outlet coupled in a fluidic manner to the orifices; the aeration system being configured to generate a circulation of air in the tank, from the air inlet towards the air outlet, via the orifices. - an inlet for receiving organic waste; - a grinder for grinding the organic waste, coupled to a first actuator; - a tank surmounted by the grinder and arranged to contain the organic waste grinded by the grinder; - a mixer arranged in the tank to mix the grinded organic waste contained in the tank, coupled to a second actuator; - an outlet arranged at the level of a bottom of the tank to recover a potting soil produced by composting the organic waste contained in the tank; - an aeration system comprising: ∘ an air inlet at least partially surmounting the tank and containing a fan; ∘ orifices for circulating air in the tank, at the level of the bottom of the tank; ∘ an air outlet coupled in a fluidic manner to the orifices; ∘ an air inlet at least partially surmounting the tank and containing a fan; ∘ orifices for circulating air in the tank, at the level of the bottom of the tank; ∘ an air outlet coupled in a fluidic manner to the orifices;
A plastic food container capable of assuming a loading state and an initially sealed state in which the container rims are engaged, the container comprising at least: a base and a lid; the base having a base rim peripherally encompassing the base and the lid having a lid rim peripherally encompassing the lid; hinge-forming structure extending from a first hinge-joining section of the lid rim to a second hinge-joining section on the base rim; and in the initially sealed state the first hinge-joining section superposing over all or part of the second hinge-joining section defining an overlapping portion (L 1); characterized in that in the initially sealed state: the base rim and lid rim frictionally engage each other such that they form one or more proximal seal zones (A, B) between the lid rim and base rim including within the overlapping portion (L 1); one or more vent channels are formed in either of the lid rim or base rim within the overlapping portion (L 1); and the one or more vent channels form a complete discontinuity in the one or more proximal seal zones (A, B) within the overlapping portion (L 1). a base and a lid; the base having a base rim peripherally encompassing the base and the lid having a lid rim peripherally encompassing the lid; hinge-forming structure extending from a first hinge-joining section of the lid rim to a second hinge-joining section on the base rim; and in the initially sealed state the first hinge-joining section superposing over all or part of the second hinge-joining section defining an overlapping portion (L 1); characterized in that in the initially sealed state: the base rim and lid rim frictionally engage each other such that they form one or more proximal seal zones (A, B) between the lid rim and base rim including within the overlapping portion (L 1); one or more vent channels are formed in either of the lid rim or base rim within the overlapping portion (L 1); and the one or more vent channels form a complete discontinuity in the one or more proximal seal zones (A, B) within the overlapping portion (L 1).
A method of operating an entity of a Wireless Local Area Network, WLAN, the method comprising: receiving a Media Access Control, MAC, address for a device that is attempting to associate with the WLAN; determining if an International Mobile Subscriber Identity, IMSI, associated with the MAC address is stored in the WLAN; and if an IMSI associated with the MAC address is not stored in the WLAN, obtaining an IMSI for the device during authentication of the device to the WLAN, and causing storage within the WLAN of the obtained IMSI in association with the MAC address; using the stored IMSI to obtain current and/or predicted load and/or performance information related to the device from a 3GPP RAN; obtaining current and/or predicted load and/or performance information related to the device for the WLAN; obtaining current and/or predicted performance of the device; evaluating the obtained load and/or performance information; and based on the evaluation, deciding to steer the device to either the WLAN or the 3GPP RAN. receiving a Media Access Control, MAC, address for a device that is attempting to associate with the WLAN; determining if an International Mobile Subscriber Identity, IMSI, associated with the MAC address is stored in the WLAN; and if an IMSI associated with the MAC address is not stored in the WLAN, obtaining an IMSI for the device during authentication of the device to the WLAN, and causing storage within the WLAN of the obtained IMSI in association with the MAC address; using the stored IMSI to obtain current and/or predicted load and/or performance information related to the device from a 3GPP RAN; obtaining current and/or predicted load and/or performance information related to the device for the WLAN; obtaining current and/or predicted performance of the device; evaluating the obtained load and/or performance information; and based on the evaluation, deciding to steer the device to either the WLAN or the 3GPP RAN.
A client computing device, comprising: at least one processor; and at least one non-transitory computer-readable medium that stores instructions that, when executed by the at least one processor, cause the client computing device to perform operations, the operations comprising: obtaining global values for a set of parameters of a machine-learned model; training the machine-learned model based at least in part on a local dataset to obtain an update matrix that is descriptive of updated values for the set of parameters of the machine-learned model, wherein the local dataset is stored locally by the client computing device; compressing the update matrix, wherein compressing the update matrix comprises encoding the update matrix to obtain an encoded update, the encoding comprising subsampling and quantization; and communicating the encoded update to a server computing device. at least one processor; and at least one non-transitory computer-readable medium that stores instructions that, when executed by the at least one processor, cause the client computing device to perform operations, the operations comprising: obtaining global values for a set of parameters of a machine-learned model; training the machine-learned model based at least in part on a local dataset to obtain an update matrix that is descriptive of updated values for the set of parameters of the machine-learned model, wherein the local dataset is stored locally by the client computing device; compressing the update matrix, wherein compressing the update matrix comprises encoding the update matrix to obtain an encoded update, the encoding comprising subsampling and quantization; and communicating the encoded update to a server computing device. obtaining global values for a set of parameters of a machine-learned model; training the machine-learned model based at least in part on a local dataset to obtain an update matrix that is descriptive of updated values for the set of parameters of the machine-learned model, wherein the local dataset is stored locally by the client computing device; compressing the update matrix, wherein compressing the update matrix comprises encoding the update matrix to obtain an encoded update, the encoding comprising subsampling and quantization; and communicating the encoded update to a server computing device.
Casing intended to be equipped with at least one section of packing for a gas/liquid separation column comprising at least one tubular wall extending along a longitudinal direction between two longitudinal ends and an internal face of which contributes to delimiting a housing for the section of packing, the tubular wall contributing to delimiting, at one of its longitudinal ends, an entry opening, the casing comprising an end wall arranged at the opposite longitudinal end to the entry opening, characterized in that the casing comprises at least one first hooping device and at least one second hooping device which are positioned annularly around the tubular wall of the casing in contact with an external face of the tubular wall, the first hooping device comprising at least one zone of connection with a movement system for the moving of the casing, the second hooping device having a longitudinal dimension shorter than a longitudinal dimension of the first hooping device.
Flame retardant mixtures comprising flame retardant and aluminium phosphites, wherein the aluminium phosphites are those of the formulae and/or Al 2.00 M z (HPO 3) y v x (H 2 O) w in which M represents alkali metal ions z is 0.01 to 1.5 y is 2.63 to 3.5 v is 0 to 2 and w is 0 to 4, Al 2.00 (HPO 3) u (H 2 PO 3) t x (H2O) s in which u is 2 to 2.99, t is 2 to 0.01 and s is 0 to 4, and/or mixtures of aluminium phosphite of the formula with aluminium salts. M represents alkali metal ions z is 0.01 to 1.5 y is 2.63 to 3.5 v is 0 to 2 and w is 0 to 4, u is 2 to 2.99, t is 2 to 0.01 and s is 0 to 4,
Switching strip having multiple fuse covers which are mounted in the switching strip, wherein the respective fuse cover has a receptacle for mounting an electrical fuse and/or an isolating blade, wherein the fuse covers are arranged one behind the other in a longitudinal direction of the switching strip and are mounted in the switching strip so as to be pivotable in the same direction about a respective first pivot axis for transfer of the fuse covers from a closed position into an open position and vice versa, wherein the fuse covers are, at a distance from the first pivot axes, connected to one another via a connecting structure for joint pivoting of the fuse covers during a movement of the connecting structure, wherein the switching strip has a handle which is connected to the connecting structure, characterized in that the handle is, independently of the fuse covers, pivotable in relation to the connecting structure for transfer of the handle from a pivoted-in position into a pivoted-out position and vice versa.
Underground distributor having a distribution box for receiving electrical and/or electronic components, wherein the distribution box is arranged in a first submersible bell which is arranged with its opening to the bottom in a first shaft of the underground distributor and can be pivoted upwardly out of the shaft from this position through 90°, wherein, with the first submersible bell pivoted in, the first shaft can be covered by a shaft cover, characterized in that the shaft cover is movable independently of the first submersible bell and the shaft cover is of at least two-part design and, after pivoting out the first submersible bell, one part of the shaft cover can be closed to produce a mounting platform.
Method for operating a transport system in the form of a long-stator linear motor comprising a stator on which a plurality of magnetic-field-generating units is arranged and comprising a plurality of transport units (Tn) which are moved along the stator simultaneously, wherein in the event of a system error in a part of the transport system, an error area is defined on the stator, whereas the error area includes only a part of the stator having the defective part of the transport system, and the magnetic-field-generating units within the error area are transferred to a specified error state, characterized in that if a transport unit (Tn) leaves the defined error area, the error area is expanded depending on the system error, so that the transport unit (Tn) that has left is within the expanded error area or in that if a transport unit (Tn, Tn+3) leaves the defined error area, a further error area is placed around the transport unit (Tn, Tn+3) that has left.
A control box arrangement with at least one control box (2, 3, 4), whose interior is subdivided or is subdividable into a plurality of compartments arranged one above the other and is closable by associated compartment doors in a sealing manner by means of a peripheral sealing arrangement (90, 85) that performs its function in the region of the inside of these compartment doors, wherein the compartment doors are hinge-mounted to a frame of the associated control box (2, 3, 4) by means of hinges on their one vertical side and are closable by means of a closing mechanism on their opposite vertical side, wherein a first hinge section (16.1) is fastened to a vertical section of the frame by means of a fastening section and the compartment door is mounted in articulating fashion on an articulating section of the first hinge section (16.1) by means of a second hinge section attached to it, wherein the fastening section is fastened in a fastening plane oriented in the depth direction of the vertical section and, by means of an outwardly angled holding section, which extends transversely across the front surface of the vertical section transitions into the bearing section situated outside the sealing arrangement (90, 85) in the closed state, characterized in that, in the closed state, the fastening section is situated inside the peripheral sealing arrangement (90, 85), and the holding section, after extending across the front surface of the vertical section, first extends toward the rear in order to form a cavity and then bends outward again, transitioning at that point into the bearing section, wherein a hinge seal extending axially in relation to the hinge is mounted in the transition region from a cavity to the bearing section and has a sealing lip (85.2) extending from a seal body (85.1) in an axially parallel fashion and fittings snugly against the front surface section of the vertical section.
A message transmission method, comprising: sending, by an optical line terminal, OLT, a message to an optical network unit, ONU, wherein the message comprises indication information, wherein the indication information indicates a power range and a time range, and the indication information is used to indicate to the ONU whose downlink receive power falls within the power range to send a registration message in the time range; receiving, by the OLT, the registration message. sending, by an optical line terminal, OLT, a message to an optical network unit, ONU, wherein the message comprises indication information, wherein the indication information indicates a power range and a time range, and the indication information is used to indicate to the ONU whose downlink receive power falls within the power range to send a registration message in the time range; receiving, by the OLT, the registration message.
A process for preparation of a compound of formula 1, comprising the steps of: a) contacting a compound of formula 6 with an inorganic base and an inorganic sulfate to obtain a compound of formula 5, wherein X 1 and X 2 are independently selected from Cl, Br and I. contacting the compound of formula 5 with hydrogen in presence of a catalyst and a buffering agent selected from metal acetate or a metal phosphate salt, to obtain a compound of formula 4; b) converting the compound of formula 4 to formula 3; wherein X represents Cl, Br or I. c) contacting the compound of formula 3 with magnesium metal to obtain a compound of formula 2; and d) contacting the compound of formula 2 with carbon dioxide to obtain the compound of formula 1. a) contacting a compound of formula 6 with an inorganic base and an inorganic sulfate to obtain a compound of formula 5, wherein X 1 and X 2 are independently selected from Cl, Br and I. contacting the compound of formula 5 with hydrogen in presence of a catalyst and a buffering agent selected from metal acetate or a metal phosphate salt, to obtain a compound of formula 4; with an inorganic base and an inorganic sulfate to obtain a compound of formula 5, wherein X 1 and X 2 are independently selected from Cl, Br and I. contacting the compound of formula 5 with hydrogen in presence of a catalyst and a buffering agent selected from metal acetate or a metal phosphate salt, to obtain a compound of formula 4; b) converting the compound of formula 4 to formula 3; wherein X represents Cl, Br or I. c) contacting the compound of formula 3 with magnesium metal to obtain a compound of formula 2; and d) contacting the compound of formula 2 with carbon dioxide to obtain the compound of formula 1.
A method in a wireless receiver for estimating inter-cell interference levels for resource elements of a received Orthogonal Frequency-Division Multiplexing, OFDM, signal, the method comprising: measuring a reference symbol interference level for each of a plurality of reference symbols in the received OFDM signal; characterized in that the method comprises: mapping interference scaling factors to each of a plurality of resource elements of the received OFDM signal, each interference scaling factor reflecting a probability that the corresponding resource element is subject to interference from an interfering OFDM signal; and estimating interference levels for each of the resource elements as a function of the measured reference symbol interference levels and the interference scaling factors. measuring a reference symbol interference level for each of a plurality of reference symbols in the received OFDM signal; characterized in that the method comprises: mapping interference scaling factors to each of a plurality of resource elements of the received OFDM signal, each interference scaling factor reflecting a probability that the corresponding resource element is subject to interference from an interfering OFDM signal; and estimating interference levels for each of the resource elements as a function of the measured reference symbol interference levels and the interference scaling factors. mapping interference scaling factors to each of a plurality of resource elements of the received OFDM signal, each interference scaling factor reflecting a probability that the corresponding resource element is subject to interference from an interfering OFDM signal; and estimating interference levels for each of the resource elements as a function of the measured reference symbol interference levels and the interference scaling factors.
A breast implant (110, 210, 310, 410, 510) comprising: an elastomeric shell (112, 212) comprising a first region (114, 214) and a second region (118, 218), and an outer surface, the first region (114, 214) defined by a first textured surface (116, 216, 316, 416, 516) of the shell (112, 212); and the second region (118, 218) defined by a second surface (122, 222, 322, 422, 522) of the shell that is different from the first textured surface of the shell; characterized by the first textured surface (116, 216, 316, 416, 516) being defined by interconnected pores extending a depth of between about 0.2 mm to about 5.0 mm into the shell outer surface. an elastomeric shell (112, 212) comprising a first region (114, 214) and a second region (118, 218), and an outer surface, the first region (114, 214) defined by a first textured surface (116, 216, 316, 416, 516) of the shell (112, 212); and the second region (118, 218) defined by a second surface (122, 222, 322, 422, 522) of the shell that is different from the first textured surface of the shell; characterized by the first textured surface (116, 216, 316, 416, 516) being defined by interconnected pores extending a depth of between about 0.2 mm to about 5.0 mm into the shell outer surface.
A laminated composite stringer (100, 200, 300) having a termination (103, 203, 303) at one end in its longitudinal direction, and including a laminated stack of composite structural plies (105, 205, 305), the ply stack having a taper of reducing stack thickness at the stringer termination (103, 203, 303), characteried in that the taper is provided by consecutively terminating the internal plies in the stack towards the stringer termination (103, 203, 303).