mhurhangee/patent-ind-claim-en huggingface dataset:
A method used in a wireless local area network, WLAN, system, the method comprising: receiving, by a receiving device, a physical layer protocol data unit, PPDU through a frequency band including at least one resource unit, RU, wherein the PPDU is generated for a plurality of receiving devices and includes a first control field , a second control field , and a data field ; and processing, by the receiving device, the PPDU, wherein the first control field includes control information required to interpret the PPDU, the method being characterized: wherein the first control field includes a control identifier that is a 1-bit identifier including information on whether a single RU is allocated for a full bandwidth of the frequency band, wherein the second control field includes identification information for the receiving device, wherein the second control field includes allocation information for the at least one RU based on the control identifier whose value is '0', and wherein the second control field does not include the allocation information for the at least one RU based on the control identifier whose value is '1'. receiving, by a receiving device, a physical layer protocol data unit, PPDU through a frequency band including at least one resource unit, RU, wherein the PPDU is generated for a plurality of receiving devices and includes a first control field , a second control field , and a data field ; and processing, by the receiving device, the PPDU, wherein the first control field includes control information required to interpret the PPDU, the method being characterized: wherein the first control field includes a control identifier that is a 1-bit identifier including information on whether a single RU is allocated for a full bandwidth of the frequency band, wherein the second control field includes identification information for the receiving device, wherein the second control field includes allocation information for the at least one RU based on the control identifier whose value is '0', and wherein the second control field does not include the allocation information for the at least one RU based on the control identifier whose value is '1'. wherein the first control field includes a control identifier that is a 1-bit identifier including information on whether a single RU is allocated for a full bandwidth of the frequency band, wherein the second control field includes identification information for the receiving device, wherein the second control field includes allocation information for the at least one RU based on the control identifier whose value is '0', and wherein the second control field does not include the allocation information for the at least one RU based on the control identifier whose value is '1'.
Sensor for measuring respiratory sounds, cardiac rate and temperature of an organism comprising: a first layer in thermal connection with the organism, a second layer of a thermally insulating material and placed on top of the first layer , a third layer provided on the second layer, a first temperature sensor in thermal connection with the first layer via a thermal conductor through the second layer , a second temperature sensor thermally insulated from the organism and in thermal connection with the third layer, wherein the first and second temperature sensors are located above the second layer , and a sound sensor located on the third layer in the bottom of a cut out in the first and second layer, forming a cavity for sound to more optimally travel to the sound sensor. a first layer in thermal connection with the organism, a second layer of a thermally insulating material and placed on top of the first layer , a third layer provided on the second layer, a first temperature sensor in thermal connection with the first layer via a thermal conductor through the second layer , a second temperature sensor thermally insulated from the organism and in thermal connection with the third layer, wherein the first and second temperature sensors are located above the second layer , and a sound sensor located on the third layer in the bottom of a cut out in the first and second layer, forming a cavity for sound to more optimally travel to the sound sensor.
A test and measurement instrument, comprising: a splitter configured to split an input signal having a particular bandwidth into a plurality of split signals , wherein each split signal includes substantially the entire bandwidth of the input signal ;a plurality of harmonic mixers , each harmonic mixer configured to mix an associated split signal of the plurality of split signals with an associated harmonic signal to generate an associated mixed signal , wherein the associated harmonic signal includes a zeroth-order harmonic; and a plurality of digitizers , each digitizer configured to digitize a mixed signal of an associated harmonic mixer of the plurality of harmonic mixers ; wherein a first-order harmonic of at least one harmonic signal associated with the harmonic mixers is different from an effective sample rate of at least one of the digitizers ; and wherein the plurality of digitized mixed signals, when combined, create a substantially accurate representation of the input signal. a splitter configured to split an input signal having a particular bandwidth into a plurality of split signals , wherein each split signal includes substantially the entire bandwidth of the input signal ;a plurality of harmonic mixers , each harmonic mixer configured to mix an associated split signal of the plurality of split signals with an associated harmonic signal to generate an associated mixed signal , wherein the associated harmonic signal includes a zeroth-order harmonic; and a plurality of digitizers , each digitizer configured to digitize a mixed signal of an associated harmonic mixer of the plurality of harmonic mixers ; wherein a first-order harmonic of at least one harmonic signal associated with the harmonic mixers is different from an effective sample rate of at least one of the digitizers ; and wherein the plurality of digitized mixed signals, when combined, create a substantially accurate representation of the input signal.
A removable support interface for an annular casing of a turbomachine (T), an annular casing of an aircraft turbomachine (T), comprising first pins projecting from an outer face , these first pins comprising a thinned portion and a free end connected to the thinned portion by a frustoconical surface , the removable support interface comprising a coupling part which can be mounted on the annular casing , and at least one attachment element for suspending the annular casing , orifices provided in the coupling part , this interface comprises means for locking the coupling part to the annular casing , these locking means being positioned on the coupling part the removable support interface being characterised in that the means comprise each a clamp having two jaws , each clamp being movable from an open position in which one of the pins supported by the casing can be engaged and disengaged from one of said orifices and a closed position in which the pin is immobilized in this orifice .
A filtration apparatus to remove non-liquid contaminant from liquid carrier , the filtration apparatus comprising: an electrode having a first surface , wherein the electrode is to generate an electric field towards liquid carrier containing non-liquid contaminant ; a reservoir having a wall defined at least partially by the first surface , the reservoir to house a volume of liquid carrier ; and a plurality of plates , each plate having an accumulation surface , wherein a portion of each plate is within the reservoir , so as to be submerged in the volume of liquid carrier ; an inlet to receive the liquid carrier containing non-liquid contaminant into the reservoir ; and an outlet to allow filtered liquid carrier to flow out of the reservoir , wherein the outlet comprises an overflow outlet at an edge of the wall of the reservoir ; wherein an electric field formed between the first surface and the accumulation surface of each plate of the plurality of plates is to act on the liquid carrier , to thereby cause non-liquid contaminant to adhere to an accumulation surface of a plate of the plurality of plates . an electrode having a first surface , wherein the electrode is to generate an electric field towards liquid carrier containing non-liquid contaminant ; a reservoir having a wall defined at least partially by the first surface , the reservoir to house a volume of liquid carrier ; and a plurality of plates , each plate having an accumulation surface , wherein a portion of each plate is within the reservoir , so as to be submerged in the volume of liquid carrier ; an inlet to receive the liquid carrier containing non-liquid contaminant into the reservoir ; and an outlet to allow filtered liquid carrier to flow out of the reservoir , wherein the outlet comprises an overflow outlet at an edge of the wall of the reservoir ; wherein an electric field formed between the first surface and the accumulation surface of each plate of the plurality of plates is to act on the liquid carrier , to thereby cause non-liquid contaminant to adhere to an accumulation surface of a plate of the plurality of plates .
A method for manipulating the fucosylated glycan content on a recombinant protein comprising inoculating a bioreactor with mammalian host cells expressing the recombinant protein, culturing the mammalian host cells in a serum free, chemically defined cell culture medium; wherein the cell culture medium includes from 10 to 100 ppb copper and from 50 to 1000 nM manganese, at pH 7.0, harvesting the recombinant protein produced by the host cell, wherein the level of afucosylated glycans on the recombinant protein increases compared to the afucosylated glycan level obtained in the same cell culture medium at a lower pH.
A control circuit for a generator for an ultrasonic surgical instrument , the control circuit configured to: measure a complex impedance of an ultrasonic blade coupled to an ultrasonic transducer ; compare the measured complex impedance to stored values of complex impedance patterns associated with ultrasonic blade functions; and apply an algorithm to control a power output to the ultrasonic transducer based on the comparison. measure a complex impedance of an ultrasonic blade coupled to an ultrasonic transducer ; compare the measured complex impedance to stored values of complex impedance patterns associated with ultrasonic blade functions; and apply an algorithm to control a power output to the ultrasonic transducer based on the comparison.
A locking device guard usable with an access panel of an access box, the locking device guard comprising: a guard door configured to be attached to a latch of the access panel , the guard door comprising a fluid absorber , wherein the guard door further comprises a door flange disposed at least partially about the fluid absorber ; a guard base configured to attach to the access panel of the access box, the guard base comprising: an aperture configured to: expose a face of an electronic lock disposed within the access panel ; and receive the fluid absorber or at least a portion of the guard door ; and a flange disposed at least partially about the aperture ; and a hinge connecting the guard base and the guard door , the hinge configured to define an open position or a closed position of the guard base relative to the guard door . a guard door configured to be attached to a latch of the access panel , the guard door comprising a fluid absorber , wherein the guard door further comprises a door flange disposed at least partially about the fluid absorber ; a guard base configured to attach to the access panel of the access box, the guard base comprising: an aperture configured to: expose a face of an electronic lock disposed within the access panel ; and receive the fluid absorber or at least a portion of the guard door ; and a flange disposed at least partially about the aperture ; and an aperture configured to: expose a face of an electronic lock disposed within the access panel ; and receive the fluid absorber or at least a portion of the guard door ; and expose a face of an electronic lock disposed within the access panel ; and receive the fluid absorber or at least a portion of the guard door ; and a flange disposed at least partially about the aperture ; and a hinge connecting the guard base and the guard door , the hinge configured to define an open position or a closed position of the guard base relative to the guard door .
Use of a marker for in-vitro or ex-vivo detection of systemic sclerosis (SSc), characterised in that the marker is a peptide, which consists of a sequence selected from SEQ ID no. 1 SPQPSASSSSQFSTSGGPWARERRAGEEPV, SEQ ID no. 3 SPQPSASSSSQF, SEQ ID no. 4 SSQFSTSGGPWAR, SEQ ID no. 6 GGPWARERRAGEEPV, or a part sequence of SEQ ID no. 1, wherein the part sequence has a length of 12 or 13 amino acids. SEQ ID no. 1 SPQPSASSSSQFSTSGGPWARERRAGEEPV, SEQ ID no. 3 SPQPSASSSSQF, SEQ ID no. 4 SSQFSTSGGPWAR, SEQ ID no. 6 GGPWARERRAGEEPV,
Vehicle tyre having a tread, having a tyre belt, having a tyre carcass with at least one carcass ply, having sidewalls and having a tyre bead with a tyre core and a bead filler , wherein the tyre core comprises, in cross section, a multiplicity of strengthening members, and the bead filler is attached on its bottom side to the top side of the tyre core , wherein the transponder has a transponder chip and an antenna attached to the transponder chip , the transponder is arranged between the outer ply turn-up of the carcass ply and a rim strip component , wherein the height dimension in a radial direction of the vehicle tyre between the transponder and the bottom side of the bead filler amounts to at least 3 mm, characterized in that the transponder is arranged in the upper region of the outer side of the bead filler , wherein the height dimension in a radial direction of the vehicle tyre between the transponder and the upper tip of the bead filler amounts to at least 5 mm, wherein the core and the bead filler are covered with a rubber ply .
A method for a UE in a multiple transmission reception points communication system, mTRP, the method comprising: - receiving a higher layer configuration of the mTRP scheme from the base station; - receiving downlink control information, DCI, from the base station, indicating a first and a second Transmission Configuration Indicator, TCI, state, and at least one demodulation reference signal, DMRS, port in one Code Division Multiplexing, CDM, group for a scheduled data transmission on physical resource blocks, PRBs, wherein the PRBs comprise at least a first subset of PRBs, associated with the first TCI state, and a second subset of PRBs, associated with the second TCI state, wherein the first and second TCI states are associated with a respective first and second TRPs of the mTRP scheme; - determining a first Phase Tracking Reference Signal, PT-RS, frequency density for the first subset of PRBs based on the number of PRBs in the first subset of PRBs and a second PT-RS frequency density for the second subset of PRBs based on the number of PRBs in the second subset of PRBs, wherein two PT-RS ports are configured, by the base station, for the UE and only a single PT-RS port associated with the lowest indexed DM-RS port is used; and - receiving two physical downlink data channels, PDSCHs, from the first and second TRPs of the mTRP scheme simultaneously in different frequency resources, where each PDSCH is associated with a transmission configuration indicator, TCI, state, wherein the receiving is based on the DCI, the determined PT-RS frequency densities and the single PT-RS port. - receiving a higher layer configuration of the mTRP scheme from the base station; - receiving downlink control information, DCI, from the base station, indicating a first and a second Transmission Configuration Indicator, TCI, state, and at least one demodulation reference signal, DMRS, port in one Code Division Multiplexing, CDM, group for a scheduled data transmission on physical resource blocks, PRBs, wherein the PRBs comprise at least a first subset of PRBs, associated with the first TCI state, and a second subset of PRBs, associated with the second TCI state, wherein the first and second TCI states are associated with a respective first and second TRPs of the mTRP scheme; - determining a first Phase Tracking Reference Signal, PT-RS, frequency density for the first subset of PRBs based on the number of PRBs in the first subset of PRBs and a second PT-RS frequency density for the second subset of PRBs based on the number of PRBs in the second subset of PRBs, wherein two PT-RS ports are configured, by the base station, for the UE and only a single PT-RS port associated with the lowest indexed DM-RS port is used; and - receiving two physical downlink data channels, PDSCHs, from the first and second TRPs of the mTRP scheme simultaneously in different frequency resources, where each PDSCH is associated with a transmission configuration indicator, TCI, state, wherein the receiving is based on the DCI, the determined PT-RS frequency densities and the single PT-RS port.
A transponder , comprising a transmitter for generating and transmitting an optical signal, a receiver for receiving optical signals, wherein said receiver comprises - a receiver-photodetector-assembly for transforming a received optical signal into an electrical signal, and - a receiver input amplifier at the receiver's input suitable for amplifying incoming optical signals to be received by said receiver , wherein said input amplifier comprises an optical gain medium, and a bypass line configured to selectively feed an optical signal from said transmitter to the receiver , and a control unit configured for determining the performance of the transponder in relation to an OSNR related parameter, by controlling the transponder to - generate a noise signal to be received by the receiver , by operating the receiver input amplifier to thereby cause ASE in the receiver input amplifier and to determine a noise intensity value representing the intensity of the noise signal, - generate a test signal at the transmitter and to determine a signal intensity value representing the test signal intensity, wherein the ratio of the signal intensity value and the noise intensity value resembles said OSNR related parameter, and - superimpose said noise signal and said test signal, or replicas thereof, to form a combined signal to be received by said receiver and determining said performance related parameter based on said combined signal, wherein for generating said combined signal, said test signal is fed from the transmitter to the receiver by means of said bypass line . - a receiver-photodetector-assembly for transforming a received optical signal into an electrical signal, and - a receiver input amplifier at the receiver's input suitable for amplifying incoming optical signals to be received by said receiver , wherein said input amplifier comprises an optical gain medium, and a bypass line configured to selectively feed an optical signal from said transmitter to the receiver , and a control unit configured for determining the performance of the transponder in relation to an OSNR related parameter, by controlling the transponder to - generate a noise signal to be received by the receiver , by operating the receiver input amplifier to thereby cause ASE in the receiver input amplifier and to determine a noise intensity value representing the intensity of the noise signal, - generate a test signal at the transmitter and to determine a signal intensity value representing the test signal intensity, wherein the ratio of the signal intensity value and the noise intensity value resembles said OSNR related parameter, and - superimpose said noise signal and said test signal, or replicas thereof, to form a combined signal to be received by said receiver and determining said performance related parameter based on said combined signal, wherein for generating said combined signal, said test signal is fed from the transmitter to the receiver by means of said bypass line .
A device configured to perform apheresis comprising one or more affinity matrices, wherein said one or more affinity matrices are capable of capturing nucleosome-bound cell free DNA (cfDNA), exosome-bound cfDNA, and unbound cfDNA from blood or plasma of a subject, wherein at least one of the one or more affinity matrices comprises a histone.
Method for operating an electrical installation having a housing and current-conducting components, in which - the housing temperature and the current intensity flowing through the current-conducting components are determined, and - the maximum permissible current-carrying capacity at which no thermal overloading of the installation occurs is calculated by means of a thermal model taking into account the current intensity and the housing temperature, characterized in that the current intensity is provided by a network control system of a network control room, and in that on the basis of the maximum permissible current-carrying capacity, the installation is operated with a higher power than the nominal power of the installation. - the housing temperature and the current intensity flowing through the current-conducting components are determined, and - the maximum permissible current-carrying capacity at which no thermal overloading of the installation occurs is calculated by means of a thermal model taking into account the current intensity and the housing temperature, characterized in that the current intensity is provided by a network control system of a network control room, and in that on the basis of the maximum permissible current-carrying capacity, the installation is operated with a higher power than the nominal power of the installation.
An implantable medical device at least comprising: an acousto-optic transducer ; a photodetector ; and an optical communication channel connecting an output Of the acousto-optic transducer to an input of the photodetector . an acousto-optic transducer ; a photodetector ; and an optical communication channel connecting an output Of the acousto-optic transducer to an input of the photodetector .
Vehicle brake , in particular utility vehicle disc brake, with a brake carrier with at least one brake pad receptacle , at least one brake pad which is supported and is guided axially displaceably in the brake pad receptacle , and a brake calliper which can be moved axially relative to the brake carrier , the brake carrier having an inlet side , on which a brake disc runs into the brake carrier in the case of a rotation in a first rotational direction , and an outlet side , on which the brake disc runs out of the brake carrier in the case of rotation in the first rotational direction , the brake carrier being reinforced structurally on the outlet side with respect to the inlet side , characterized in that at least one running direction indicator for indicating the first rotational direction is arranged on the brake carrier , and the brake carrier being configured as a single-piece component, in particular as a single-piece cast part, with at least one direction indicator arrow which is moulded integrally as a running direction indicator.