mhurhangee/patent-ind-claim-en huggingface dataset:
Method for introducing an insulating foam into at least one hollow chamber , delimited by walls (11-21), of a profile of frame of a sash, casement or leaf for producing windows and/or doors formed as a hollow chamber profile , comprising the following features: a) providing a plurality of filling openings (5, 5' 6), distributed over the length of the hollow chamber profile , and a respective venting opening between every two filling openings in at least one wall of the at least one hollow chamber , the hollow chamber profile having a length of 5.5 to 7 m; b) injecting a foamable mixture in a metered manner into the at least one hollow chamber through the plurality of filling openings ; c) closing the filling openings ; d) expanding and curing the foamable mixture while at least largely displacing the gas present in the at least one hollow chamber through the venting openings ; the metered injection of the foamable mixture taking place simultaneously or successively through the respective filling openings and the hollow chamber profile being stored more or less horizontally - i.e. with an angle of < 5° with respect to the horizontal - during the expanding and curing of the foamable mixture. a) providing a plurality of filling openings (5, 5' 6), distributed over the length of the hollow chamber profile , and a respective venting opening between every two filling openings in at least one wall of the at least one hollow chamber , the hollow chamber profile having a length of 5.5 to 7 m; b) injecting a foamable mixture in a metered manner into the at least one hollow chamber through the plurality of filling openings ; c) closing the filling openings ; d) expanding and curing the foamable mixture while at least largely displacing the gas present in the at least one hollow chamber through the venting openings ;
A method of wireless communications, comprising: transmitting , by a user equipment, UE, a mid-amble position indication, or a UE capability information, or both, wherein at least one of the mid-amble position indication or the UE capability information indicates a latest position for a mid-amble position within a slot at which the UE can support using a mid-amble in performing channel estimation; and receiving , by the UE, a transmission including a transmitted slot having a preamble and a mid-amble, wherein the mid-amble is at the mid-amble position within the slot as determined based at least in part on at least one of the mid-amble position indication or the UE capability information. transmitting , by a user equipment, UE, a mid-amble position indication, or a UE capability information, or both, wherein at least one of the mid-amble position indication or the UE capability information indicates a latest position for a mid-amble position within a slot at which the UE can support using a mid-amble in performing channel estimation; and receiving , by the UE, a transmission including a transmitted slot having a preamble and a mid-amble, wherein the mid-amble is at the mid-amble position within the slot as determined based at least in part on at least one of the mid-amble position indication or the UE capability information.
A method, comprising: receiving, from a host device , a write command indicating a set of data to be written to a plurality of memory cells ; determining, based at least in part on a read operation on the plurality of memory cells and the set of data, a first set of memory cells of the plurality of memory cells to be switched from a first logic state to a second logic state as part of the write command; determining a second set of memory cells from the first set of memory cells based at least in part on the read operation, the second set of memory cells having a conductance threshold in the first logic state satisfying a criteria; and performing a write operation to write each memory cell within the first set of memory cells from the first logic state to the second logic state based at least in part on the write command, wherein the write operation comprises applying a first write signal to write memory cells that are within the first set of memory cells and not within the second set of memory cells and a second write signal to write memory cells that are within the second set of memory cells; characterised in that the criteria for determining the second set of memory cells is based at least in part on a predicted drift of a memory cell storing the second logic state, the second write signal being different from the first write signal decreasing a magnitude of the threshold voltage drift of the memory cells that are within the second set of memory cells in the second logic state. receiving, from a host device , a write command indicating a set of data to be written to a plurality of memory cells ; determining, based at least in part on a read operation on the plurality of memory cells and the set of data, a first set of memory cells of the plurality of memory cells to be switched from a first logic state to a second logic state as part of the write command; determining a second set of memory cells from the first set of memory cells based at least in part on the read operation, the second set of memory cells having a conductance threshold in the first logic state satisfying a criteria; and performing a write operation to write each memory cell within the first set of memory cells from the first logic state to the second logic state based at least in part on the write command, wherein the write operation comprises applying a first write signal to write memory cells that are within the first set of memory cells and not within the second set of memory cells and a second write signal to write memory cells that are within the second set of memory cells; characterised in that the criteria for determining the second set of memory cells is based at least in part on a predicted drift of a memory cell storing the second logic state, the second write signal being different from the first write signal decreasing a magnitude of the threshold voltage drift of the memory cells that are within the second set of memory cells in the second logic state.
A brake system for an electric wheel drive unit , comprising a housing that can be attached securely to the vehicle frame, said housing having a flange region and a shaft-type wheel carrier region secured to the flange region ; a first brake component connected to the housing , wherein the first brake component has a first support part attached directly on a radial outer side of the wheel carrier region and a first brake disc element rotationally fixed to the first support part , a second brake component rotatably mounted relative to the housing , wherein the second brake component has a second support part and a second brake disc element which is rotationally fixed to the second support part and which is designed and arranged for a frictional connection with the first brake disc element , as well as a hydraulic actuation device provided with at least one or more pressure pistons , characterised in that the actuation device is arranged in such a way that the pressure pistons are arranged within the brake disc elements in a radial direction of an axis of rotation of the second brake component , and a sliding element , moveably coupling the one or more pressure pistons with one of the brake disc elements , is arranged at a distance from the first support part both in the radial direction and in an axial direction of the axis of rotation .
A cytocidal agent comprising a peptide consisting of an amino acid sequence represented by SEQ ID NO: 1 as an effector peptide in which a peptide having apoptosis-inducing activity and a peptide having endosomal escape activity are linked in tandem.
A Schottky diode comprising: a drift layer having a first surface with an active region, wherein the drift layer is doped with a doping material of a first conductivity type; a Schottky layer over the active region of the first surface to form a Schottky junction, the Schottky layer forming the Schottky junction with respect to the active region on the first surface; and a plurality of first doped regions that extend into the drift layer about corresponding ones of a plurality of recesses , wherein the plurality of first doped regions are doped with a doping material of a second conductivity type, which is opposite the first conductivity type, and form a surge protection region in the drift layer below the Schottky junction, wherein the spacing between adjacent first doped regions is less than 3μm and is configured to increase a resistance of a current path at the spacing such that conduction at the plurality of first doped regions adjacent to the spacing begins at a desired level of forward current, wherein the Schottky layer is within the plurality of recesses and forms an ohmic contact with the plurality of first doped regions within the plurality of recesses. a drift layer having a first surface with an active region, wherein the drift layer is doped with a doping material of a first conductivity type; a Schottky layer over the active region of the first surface to form a Schottky junction, the Schottky layer forming the Schottky junction with respect to the active region on the first surface; and a plurality of first doped regions that extend into the drift layer about corresponding ones of a plurality of recesses , wherein the plurality of first doped regions are doped with a doping material of a second conductivity type, which is opposite the first conductivity type, and form a surge protection region in the drift layer below the Schottky junction, wherein the spacing between adjacent first doped regions is less than 3μm and is configured to increase a resistance of a current path at the spacing such that conduction at the plurality of first doped regions adjacent to the spacing begins at a desired level of forward current, wherein the Schottky layer is within the plurality of recesses and forms an ohmic contact with the plurality of first doped regions within the plurality of recesses.
Device for use in a bottom construction of a bed for cooling particulate material, where said device comprises a frame, said frame comprises a wall surrounding and opening and extending above and below a plate member arranged in a plane substantially orthogonal to the extent of the wall and away from the opening, where said frame in the plate comprises means for fastening said device to the bottom construction, and where inside the wall of the frame, a primary and a secondary opening is provided, where said primary and secondary openings allows cooling air to pass through the frame and thereby through the bottom and through the bed of particulate material, and where a pendulum plate is pivotably arranged on an shaft , such that the pendulum plate may pivot and thereby block off more or less of the secondary opening , and where said pendulum plate is biased towards a position allowing the secondary opening to be as open as possible, and where the primary opening remains open and where a shutter plate is provided in the frame, where said shutter plate steplessly may be adjusted between positions where the shutter plate is not blocking or substantially completely blocking said primary and/or secondary openings .
Method for identifying data corruption in a data transfer over an error-proof communication link between a first automation component and a second automation component in industrial control engineering, wherein, during transfer of a data structure , for the purpose of securing the data structure in a telegram to be transferred, a checksum (CRC telegr ) regarding the telegram is formed both at the first automation component and at the second automation component , wherein the data structure includes different data types (21, ..., 25), characterised in that , before the checksum (CRC telegr ) for the telegram is formed at the first automation component , there is associated with the data types (21, ..., 25) contained in the data structure a data-type-specific representative , and then, by way of the representatives , a structure checksum (CRC struct ) is formed, and thereafter the data structure with the structure checksum (CRC struct ) that is formed by way of the representatives is transferred, wherein in the second automation component the data-type-specific representative is once again associated with the data types (21, ..., 25) in the received data structure , and the structure checksum (CRC struct ) is once again formed by way of the representatives , the transferred structure checksum (CRC struct ) and the newly calculated structure checksum (CRC struct ) are checked at the second automation component and, in the event of a discrepancy between the structure checksums (CRC struct ), data corruption is identified.
A communication device for use in a user equipment of a 3GPP LTE-based radio access network, the communication device comprising: UCI circuitry to generate UCI that includes one or more sets of periodic CSI that respectively correspond with one or more serving cells; feedback circuitry coupled with the UCI circuitry , the feedback circuitry to: determine a number of encoded bits to convey the UCI; select an encoding scheme from a plurality of encoding schemes based on the number of encoded bits; and encode the UCI with the encoding scheme for transmission using PUCCH format 3, characterized in that the feedback circuitry comprises a tail biting convolutional encoder to encode the UCI with tail biting convolutional coding, if the number of encoded bits is greater than 22; wherein the feedback circuitry further includes a plurality of transmitters configured to provide a plurality of PUCCH-resource based transmissions for transmitting the encoded UCI using more than one transmit antennae ; and the feedback circuitry is configured to turn off a frequency hopping function when using tail biting convolutional coding. UCI circuitry to generate UCI that includes one or more sets of periodic CSI that respectively correspond with one or more serving cells; feedback circuitry coupled with the UCI circuitry , the feedback circuitry to: determine a number of encoded bits to convey the UCI; select an encoding scheme from a plurality of encoding schemes based on the number of encoded bits; and encode the UCI with the encoding scheme for transmission using PUCCH format 3, determine a number of encoded bits to convey the UCI; select an encoding scheme from a plurality of encoding schemes based on the number of encoded bits; and encode the UCI with the encoding scheme for transmission using PUCCH format 3, characterized in that the feedback circuitry comprises a tail biting convolutional encoder to encode the UCI with tail biting convolutional coding, if the number of encoded bits is greater than 22; wherein the feedback circuitry further includes a plurality of transmitters configured to provide a plurality of PUCCH-resource based transmissions for transmitting the encoded UCI using more than one transmit antennae ; and the feedback circuitry is configured to turn off a frequency hopping function when using tail biting convolutional coding.
A cooling fan automatic control system (A) comprising: a temperature sensor configured to measure a temperature of an object to be cooled; a plurality of current sensors configured to respectively measure power consumption by each of a plurality of cooling fans ; and a controller which, when a measured temperature that is a measured value obtained by the temperature sensor is higher than a target cooling temperature of the object to be cooled, is configured to control rotational speeds of the plurality of cooling fans to decrease the rotational speeds of the plurality of cooling fans either in a pre-set order or in order from a cooling fan of which the measured current value is higher than the measured current values of the other cooling fans so as to reduce a total of measured current values of the plurality of cooling fans obtained by the plurality of current sensors while the object to be cooled is cooled using said plurality of fans. a temperature sensor configured to measure a temperature of an object to be cooled; a plurality of current sensors configured to respectively measure power consumption by each of a plurality of cooling fans ; and a controller which, when a measured temperature that is a measured value obtained by the temperature sensor is higher than a target cooling temperature of the object to be cooled, is configured to control rotational speeds of the plurality of cooling fans to decrease the rotational speeds of the plurality of cooling fans either in a pre-set order or in order from a cooling fan of which the measured current value is higher than the measured current values of the other cooling fans so as to reduce a total of measured current values of the plurality of cooling fans obtained by the plurality of current sensors while the object to be cooled is cooled using said plurality of fans.
A bagging and packaging machine , comprising: a transport mechanism adapted to transport a pouch in a standing posture, along a predetermined track; and a plurality of processing units (S1 to S8) adapted to process the pouch transported by the transport mechanism ; wherein: the processing units (S1 to S8) include a filling unit (S4) adapted to fill the pouch with an object to be packaged ; and the transport mechanism has a holding unit adapted to hold the pouch , and a swinging mechanism adapted to swing the pouch , which has been filled with the object to be packaged in the filling unit (S4), in a vertical plane parallel to a transport direction (D1), characterized in that the swinging mechanism is adapted to swing the holding unit so that a lower end edge of the pouch is displaced forward or rearward along the transport direction (D1) with respect to an upper end edge of the pouch . a transport mechanism adapted to transport a pouch in a standing posture, along a predetermined track; and a plurality of processing units (S1 to S8) adapted to process the pouch transported by the transport mechanism ; wherein: the processing units (S1 to S8) include a filling unit (S4) adapted to fill the pouch with an object to be packaged ; and the transport mechanism has a holding unit adapted to hold the pouch , and a swinging mechanism adapted to swing the pouch , which has been filled with the object to be packaged in the filling unit (S4), in a vertical plane parallel to a transport direction (D1), characterized in that the swinging mechanism is adapted to swing the holding unit so that a lower end edge of the pouch is displaced forward or rearward along the transport direction (D1) with respect to an upper end edge of the pouch . the processing units (S1 to S8) include a filling unit (S4) adapted to fill the pouch with an object to be packaged ; and the transport mechanism has a holding unit adapted to hold the pouch , and a swinging mechanism adapted to swing the pouch , which has been filled with the object to be packaged in the filling unit (S4), in a vertical plane parallel to a transport direction (D1), characterized in that the swinging mechanism is adapted to swing the holding unit so that a lower end edge of the pouch is displaced forward or rearward along the transport direction (D1) with respect to an upper end edge of the pouch .
An isolation valve for use in drilling a wellbore, comprising: a tubular housing for assembly as part of a casing string and for receiving a drill string, wherein the tubular housing has a shoulder formed in an inner surface thereof; a seat disposed in the tubular housing and longitudinally movable relative to the tubular housing , wherein the seat has a shoulder formed in an outer surface thereof; a flapper pivotally connected to the seat between an open position and a closed position; a flow tube longitudinally movable relative to the tubular housing for opening the flapper ; a first hydraulic chamber formed between the flow tube and the tubular housing and receiving a piston of the flow tube , wherein the flow tube is movable to open the flapper in response to a fluid pressure in the first hydraulic chamber ; a hydraulic passage in fluid communication with the first hydraulic chamber and a hydraulic coupling ; and a differential pressure indicator (DPI) linked to the seat for responding to force exerted on the seat by the flapper in the closed position, the DPI including a second chamber formed between the shoulder of the tubular housing and the shoulder of the seat , wherein the second chamber is further formed between the seat and the tubular housing . a tubular housing for assembly as part of a casing string and for receiving a drill string, wherein the tubular housing has a shoulder formed in an inner surface thereof; a seat disposed in the tubular housing and longitudinally movable relative to the tubular housing , wherein the seat has a shoulder formed in an outer surface thereof; a flapper pivotally connected to the seat between an open position and a closed position; a flow tube longitudinally movable relative to the tubular housing for opening the flapper ; a first hydraulic chamber formed between the flow tube and the tubular housing and receiving a piston of the flow tube , wherein the flow tube is movable to open the flapper in response to a fluid pressure in the first hydraulic chamber ; a hydraulic passage in fluid communication with the first hydraulic chamber and a hydraulic coupling ; and a differential pressure indicator (DPI) linked to the seat for responding to force exerted on the seat by the flapper in the closed position, the DPI including a second chamber formed between the shoulder of the tubular housing and the shoulder of the seat , wherein the second chamber is further formed between the seat and the tubular housing .