mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication comprising: receiving downlink signaling on a plurality of downlink carriers; determining hybrid automatic repeat request, HARQ, acknowledgment feedback corresponding to each of the plurality of carriers; selecting a first HARQ feedback symbol for encoding the HARQ acknowledgement feedback corresponding to a first subset of the plurality of carriers comprising at least two of the plurality of carriers, wherein the first HARQ feedback symbol is selected from one of a plurality of codebooks; selecting a second HARQ feedback symbol for encoding the HARQ acknowledgment feedback corresponding to a second subset of the plurality of carriers comprising at least one of the plurality of carriers, wherein the second HARQ feedback symbol is selected from one of the plurality of codebooks; and transmitting the first and second HARQ feedback symbols on an uplink, wherein the transmitting comprises modulating at least a first portion of a time slot of an uplink carrier with the first HARQ feedback symbol, and modulating a second portion of the time slot of the uplink carrier, other than the first portion of the time slot, with the second HARQ feedback symbol. receiving downlink signaling on a plurality of downlink carriers; determining hybrid automatic repeat request, HARQ, acknowledgment feedback corresponding to each of the plurality of carriers; selecting a first HARQ feedback symbol for encoding the HARQ acknowledgement feedback corresponding to a first subset of the plurality of carriers comprising at least two of the plurality of carriers, wherein the first HARQ feedback symbol is selected from one of a plurality of codebooks; selecting a second HARQ feedback symbol for encoding the HARQ acknowledgment feedback corresponding to a second subset of the plurality of carriers comprising at least one of the plurality of carriers, wherein the second HARQ feedback symbol is selected from one of the plurality of codebooks; and transmitting the first and second HARQ feedback symbols on an uplink, wherein the transmitting comprises modulating at least a first portion of a time slot of an uplink carrier with the first HARQ feedback symbol, and modulating a second portion of the time slot of the uplink carrier, other than the first portion of the time slot, with the second HARQ feedback symbol.
An aerosol-forming article comprising an aerosol-forming substrate and at least one hollow bore filter element downstream from the aerosol-forming substrate wherein the at least one hollow bore filter element comprises a flavourant additive, wherein the flavourant additive is evenly dispersed throughout the hollow-bore filter element and wherein the aerosol-forming article is a heat-not-burn consumable.
An article comprising: a thermal material having a first surface and second surface; a film hole defined in said thermal material between said first surface and said second surface, said film hole including a metering portion adjacent said first surface and a diffuser portion adjacent said second surface, said metering portion defining a metering hole axis; characterized in that the article also comprises: a trench defined in said diffuser portion, said trench extending substantially parallel to said metering hole axis. a thermal material having a first surface and second surface; a film hole defined in said thermal material between said first surface and said second surface, said film hole including a metering portion adjacent said first surface and a diffuser portion adjacent said second surface, said metering portion defining a metering hole axis; a trench defined in said diffuser portion, said trench extending substantially parallel to said metering hole axis.
Testing device for a motor vehicle bus, wherein the testing device includes a bus controller for the sending and receiving of bus messages, wherein the bus controller has a message memory for the provision of sending data for several bus messages, wherein the message memory has a memory capacity for a bus message sequence with bus messages to be sent within a single send cycle (31, 32) or a send cycle sequence, wherein the testing device has a buffer memory for the storage of sending data for bus messages with a greater memory capacity than the message memory, wherein the testing device has send preparation means for reading out the sending data from the buffer memory and for writing into the message memory of the bus controller in advance of reading from the bus controller, so that the bus message sequence is expanded by additional bus messages which the bus controller sends to the motor vehicle bus within the send cycle (31, 32) or the send cycle sequence, characterised in that the send preparation means have header preparation means for the writing of header data (54a-54k) into the message memory and user data preparation means for the writing of user data (55a-55k) into the message memory, wherein the header data (54a-54k) are provided for the generation of message headers of the bus messages and the user data (55a-55k) for user data (55a-55k) of the bus messages in each case following the message headers, wherein the header preparation means write the message headers into the message memory before the user data preparation means write the assigned user data (55a-55k) into the message memory, so that the user data preparation means are able to change the user data (55a-55k) during a blocking phase in which the bus controller blocks in advance the writing of message headers into the message memory before the sending of a particular bus message.
A method of wireless communication at a client device, the method comprising: receiving a security configuration from a base station, obtaining a physical downlink control channel (PDCCH) encryption key based at least in part on the received security configuration; and decrypting a PDCCH message from the base station based at least in part on the obtained encryption key, characterized in that receiving the security configuration comprises: establishing a secure channel between the base station and the client device; and receiving the security configuration over the secure channel established between the base station and the client device, wherein the security configuration comprises information indicating that the PDCCH message is encrypted using a multicast encryption key, or the PDCCH message is encrypted using a unicast encryption key, or the PDCCH message is protected using a message authentication code, MAC, or a combination thereof. receiving a security configuration from a base station, obtaining a physical downlink control channel (PDCCH) encryption key based at least in part on the received security configuration; and decrypting a PDCCH message from the base station based at least in part on the obtained encryption key, establishing a secure channel between the base station and the client device; and receiving the security configuration over the secure channel established between the base station and the client device, wherein the security configuration comprises information indicating that the PDCCH message is encrypted using a multicast encryption key, or the PDCCH message is encrypted using a unicast encryption key, or the PDCCH message is protected using a message authentication code, MAC, or a combination thereof.
A process comprising: a) forming a plurality of melt blown fibers by passing a molten stream comprising molecules of at least one thermoplastic semi-crystalline (co)polymer through a plurality of orifices of a melt-blowing die and attenuating the molten stream by convergent streams of high velocity hot air; b) subjecting at least a portion of the melt blown fibers of step (a) to a controlled in-flight heat treatment operation immediately upon exit of the melt blown fibers from the plurality of orifices, wherein the controlled in-flight heat treatment operation takes place at a temperature of from about 80°C to about 240°C and below a melting temperature of the portion of the melt blown fibers for a time sufficient to achieve stress relaxation of at least a portion of the molecules within the portion of the fibers subjected to the controlled in-flight heat treatment operation; and c) collecting at least some of the portion of the melt blown fibers subjected to the controlled in-flight heat treatment operation of step (b) on a collector to form a non-woven fibrous structure, wherein the nonwoven fibrous structure exhibits a Shrinkage less than a Shrinkage measured on an identically-prepared structure that is not subjected to the controlled in-flight heat treatment operation of step (b). a) forming a plurality of melt blown fibers by passing a molten stream comprising molecules of at least one thermoplastic semi-crystalline (co)polymer through a plurality of orifices of a melt-blowing die and attenuating the molten stream by convergent streams of high velocity hot air; b) subjecting at least a portion of the melt blown fibers of step (a) to a controlled in-flight heat treatment operation immediately upon exit of the melt blown fibers from the plurality of orifices, wherein the controlled in-flight heat treatment operation takes place at a temperature of from about 80°C to about 240°C and below a melting temperature of the portion of the melt blown fibers for a time sufficient to achieve stress relaxation of at least a portion of the molecules within the portion of the fibers subjected to the controlled in-flight heat treatment operation; and c) collecting at least some of the portion of the melt blown fibers subjected to the controlled in-flight heat treatment operation of step (b) on a collector to form a non-woven fibrous structure, wherein the nonwoven fibrous structure exhibits a Shrinkage less than a Shrinkage measured on an identically-prepared structure that is not subjected to the controlled in-flight heat treatment operation of step (b).
A composition for use in a surgical method for the treatment of lymphedema, comprising: a multi-lumenal bundle of threads having aligned threads formed from biocompatible and biodegradable collagen-based fibrils or fibers, which induces capillary flow of extracellular fluid in the bundle direction.
A system for the new construction, for the repair or for the demolition of a road, in particular of a highway, comprising at least one road construction vehicle for carrying out work on the road or on the subgrade for the road; and means for transporting objects to and from the road construction vehicle using a plurality of conveyor vehicles which can be coupled together and which each have at least one transport path (6, 7) on which the objects can be traveled along the conveyor vehicles and which is configured such that the transport paths (6, 7) of conveyor vehicles which are coupled together adjoin one another, characterized in that transport bodies are provided for the objects and are configured for a travelability along mutually adjoining transport paths (6, 7) from conveyor vehicle to conveyor vehicle, with at least one transport body being configured as an open or closed container for the objects or as a plate-like carrier for the objects.
A forklift truck comprising at least one fork (102, 104), wherein the fork (102, 104) is height adjustable between a lowered position and a raised position and wherein a fork wheel bogie is arranged at the front end of the fork (102, 104), the fork wheel bogie comprising a front wheel and a rear wheel, wherein the fork wheel bogie comprises a linkage, which is pivotable in relation to the fork (102, 104) on which the bogie is arranged and wherein the front wheel axle and the rear wheel axle are connected with each other and the pivotable linkage, wherein a slide device is attached to the front wheel, wherein the slide device extends beyond the front wheel and is configured to be able to slide on an encountered obstacle and thereby lift the front wheel onto the obstacle, characterized in that the slide device is adapted to act as a lever in cooperation with the fork (102, 104), such that the rear wheel may be lifted onto the encountered obstacle, wherein the slide device is arranged to act as a lever by abutting the underside of the fork (102, 104) whereby the fork (102, 104), when lowered to the lowered position, exerts a force on a front part of the slide device.
A polishing composition comprising: (a) 0.001 wt.% to 0.1 wt.% of abrasive particles coated with a polymer, (b) at least one anionic surfactant, and (c) water, wherein the composition has a pH of 1.5 to 5. (a) 0.001 wt.% to 0.1 wt.% of abrasive particles coated with a polymer, (b) at least one anionic surfactant, and (c) water,
A method of wireless communication performed by a user equipment, UE, configured to receive synchronization signals, SSs, sent in bursts of SS blocks, wherein the SS blocks carry synchronization signals and a physical broadcast channel, PBCH, the method comprising: receiving a communication that includes downlink control information, DCI, wherein a register for a cyclic redundancy check, CRC, value is initialized using at least one non-zero value so that a size of the DCI affects the CRC value associated with the communication; and determining the DCI based at least in part on the CRC value. receiving a communication that includes downlink control information, DCI, wherein a register for a cyclic redundancy check, CRC, value is initialized using at least one non-zero value so that a size of the DCI affects the CRC value associated with the communication; and determining the DCI based at least in part on the CRC value.
An electronic component allocation method which allocates electronic components to be mounted to each of a plurality of nozzle holders (46, 72, 82) provided on a mounting head (40, 70, 80) by a control device, wherein an electronic component which does not have a usage record or an electronic component which is a test target is allocated to the nozzle holder (46, 72, 82) which does not have operation restrictions by an electronic component allocation section of the control device, wherein the usage record contains a record in which image processing of an electronic component is correctly completed, and wherein the nozzle holders (46, 72, 82) which do not have operation restrictions contain a nozzle holder (46, 72, 82) capable of allocating an electronic component of a maximum size that the mounting head (40, 70, 80) is capable of mounting.
An electrical powered vehicle capable of generating a vehicle driving force by an electric power, said electrical powered vehicle comprising: a secondary self-resonant coil installed at a predetermined position and receiving electric power from a primary self-resonant coil provided at a power feeding apparatus external to the vehicle in a non-contact manner by resonating, via an electromagnetic field, with said primary self-resonant coil, and at least one electric apparatus among a power storage device capable of storing electric power received by said secondary self-resonant coil, an electric motor generating a vehicle driving force, a driving device driving said electric motor using the electric power received by said secondary self-resonant coil, and an electronic control unit controlling said driving device, characterised in that said secondary self-resonant coil being arranged such that both said wire ends of said secondary self-resonant coil are located distant from an electric apparatus that is located closest to said secondary self-resonant coil among said electric apparatus. a secondary self-resonant coil installed at a predetermined position and receiving electric power from a primary self-resonant coil provided at a power feeding apparatus external to the vehicle in a non-contact manner by resonating, via an electromagnetic field, with said primary self-resonant coil, and at least one electric apparatus among a power storage device capable of storing electric power received by said secondary self-resonant coil, an electric motor generating a vehicle driving force, a driving device driving said electric motor using the electric power received by said secondary self-resonant coil, and an electronic control unit controlling said driving device, characterised in that said secondary self-resonant coil being arranged such that both said wire ends of said secondary self-resonant coil are located distant from an electric apparatus that is located closest to said secondary self-resonant coil among said electric apparatus.
A topical minocycline composition comprising porous calcium phosphate particles loaded with a minocycline active agent, wherein the amount of minocycline active agent associated with the particles ranges from 0.1-100 mg per gram of delivery composition component, and the composition is a formulation configured to be applied to a keratinized skin surface of a mammal.
A control device for straddled vehicle, the control device comprising: a brake pressure acquisition unit configured to acquire a pre-stop brake pressure when the straddled vehicle is stopped by braking; a total weight acquisition unit configured to acquire an estimate value of a total weight of the straddled vehicle; a stop-time brake pressure setting unit configured to set a brake pressure for stopping the straddled vehicle based at least on the pre-stop brake pressure acquired by the brake pressure acquisition unit and the estimate value of the total weight of the straddled vehicle acquired by the total weight acquisition unit; and a brake control unit configured to, when no brake operation is performed by a driver, actuate a brake device of the straddled vehicle based on the brake pressure set by the stop-time brake pressure setting unit. a brake pressure acquisition unit configured to acquire a pre-stop brake pressure when the straddled vehicle is stopped by braking; a total weight acquisition unit configured to acquire an estimate value of a total weight of the straddled vehicle; a stop-time brake pressure setting unit configured to set a brake pressure for stopping the straddled vehicle based at least on the pre-stop brake pressure acquired by the brake pressure acquisition unit and the estimate value of the total weight of the straddled vehicle acquired by the total weight acquisition unit; and a brake control unit configured to, when no brake operation is performed by a driver, actuate a brake device of the straddled vehicle based on the brake pressure set by the stop-time brake pressure setting unit.
A particle comprising: a core substrate having a plurality of pores, and a coating substantially encapsulating the core substrate, the core substrate comprising at least one active ingredient present within the pores, and the coating being formed from an alkali phosphate glass or an alkali silicate glass, wherein the core substrate is selected from the group consisting of amorphous silica, glasses, clays, zeolites and ceramics and wherein the alkali phosphate or alkali silicate has a greater dissolution rate in aqueous media than in alcoholic media. a core substrate having a plurality of pores, and a coating substantially encapsulating the core substrate,
Apparatus for the heat treatment of mineral materials, wherein the apparatus has three assemblies, wherein the first assembly is a preheater, wherein the second assembly is a calciner and wherein the third assembly is a cooler, wherein the preheater is an entrained flow preheater, wherein the calciner is an entrained flow calciner, wherein the calciner is directly connected to the cooler, characterised in that at least two of the three assemblies are arranged next to each other, wherein the preheater has a first gas inlet and a first gas outlet, wherein the calciner has a second gas inlet and a second gas outlet, wherein the cooler has a third gas inlet and a third gas outlet, wherein the second gas outlet is connected to the first gas inlet via a first gas line, wherein the third gas outlet is connected to the second gas inlet via a second gas line, wherein the first gas line and the second gas line each have a falling gas line section and a lower deflection (42, 52) on the underside.
A spray boom, comprising: a body having a length defined between a first end and a second end thereof, a hollow cavity defined in the body internally of an inner surface (304, 404); and a channel (318, 320, 418, 420, 434, 436) formed in the body between the inner surface (304, 404) and an outer surface (302, 402), the channel (318, 320, 418, 420, 434, 436) extending along the length and defined between the first end and the second end, characterized in that the body is formed by a plurality of layers (308, 310, 312, 314, 316, 408, 410, 412, 414, 416) of composite material molded together to form the inner surface (304, 404) and the outer surface (302, 402). a body having a length defined between a first end and a second end thereof, a hollow cavity defined in the body internally of an inner surface (304, 404); and a channel (318, 320, 418, 420, 434, 436) formed in the body between the inner surface (304, 404) and an outer surface (302, 402), the channel (318, 320, 418, 420, 434, 436) extending along the length and defined between the first end and the second end, characterized in that the body is formed by a plurality of layers (308, 310, 312, 314, 316, 408, 410, 412, 414, 416) of composite material molded together to form the inner surface (304, 404) and the outer surface (302, 402).
Cooling box for cooling electrical components, having two connected half-shells (21, 22), wherein the cooling box comprises a plurality of support elements, wherein the support elements are arranged within a volume formed between the two half-shells for mechanical support of the half-shells (21, 22), characterized in that the support elements are of Y-shaped form.
A method for determining the forward and reverse available capacity or tight link capacity of a path from a single endpoint, comprising: transmitting, from a source endpoint node toward a destination endpoint node, a forward packet train including a first plurality of test packets over a forward path; receiving, at said source endpoint node, a corresponding reverse packet train from said destination endpoint node, said reverse packet train including a second plurality of test packets over a reverse path each of which correspond to a respective one of said first plurality of test packets; extracting, by said source endpoint node, information from said second plurality of test packets; determining, by said source endpoint node, said forward and reverse available capacity or tight link capacity of said path based on said extracted information; and providing, by said source endpoint node, a reverse packet field in each packet of the first plurality of test packets, which reverse packet field informs said destination endpoint node about a rate at which to transmit said second plurality of test packets. transmitting, from a source endpoint node toward a destination endpoint node, a forward packet train including a first plurality of test packets over a forward path; receiving, at said source endpoint node, a corresponding reverse packet train from said destination endpoint node, said reverse packet train including a second plurality of test packets over a reverse path each of which correspond to a respective one of said first plurality of test packets; extracting, by said source endpoint node, information from said second plurality of test packets; determining, by said source endpoint node, said forward and reverse available capacity or tight link capacity of said path based on said extracted information; and providing, by said source endpoint node, a reverse packet field in each packet of the first plurality of test packets, which reverse packet field informs said destination endpoint node about a rate at which to transmit said second plurality of test packets.