mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, by multiple receivers of multiple gateways of a ground receiver system, from multiple transmitters of a satellite over a downlink of a line-of-sight LoS multiple-input multiple-output MIMO feeder link, multiple radio frequency RF signals; obtaining, at the ground receiver system, from the RF signals, preamble signals and pilot signals, the pilot signals including first sequences of pilot symbols associated with second sequences of pilot symbols transmitted by the transmitters; estimating, at the ground receiver system, based on the first sequences of pilot symbols and the second sequences of pilot symbols, first channel state information CSI of the pilot signals; estimating, at the ground receiver system, using the first CSI of the pilot signals, frequency offsets and phase offsets of links between the receivers and the transmitters; adjusting, at the ground receiver system, based at least on the frequency offsets and the phase offsets, the preamble signals to obtain adjusted preamble signals; and estimating, at the ground receiver system, using the adjusted preamble signals, second CSI of the downlink. receiving, by multiple receivers of multiple gateways of a ground receiver system, from multiple transmitters of a satellite over a downlink of a line-of-sight LoS multiple-input multiple-output MIMO feeder link, multiple radio frequency RF signals; obtaining, at the ground receiver system, from the RF signals, preamble signals and pilot signals, the pilot signals including first sequences of pilot symbols associated with second sequences of pilot symbols transmitted by the transmitters; estimating, at the ground receiver system, based on the first sequences of pilot symbols and the second sequences of pilot symbols, first channel state information CSI of the pilot signals; estimating, at the ground receiver system, using the first CSI of the pilot signals, frequency offsets and phase offsets of links between the receivers and the transmitters; adjusting, at the ground receiver system, based at least on the frequency offsets and the phase offsets, the preamble signals to obtain adjusted preamble signals; and estimating, at the ground receiver system, using the adjusted preamble signals, second CSI of the downlink.
A chimeric antigen receptor, wherein the CAR comprises a BCMA-binding domain, a transmembrane domain, a costimulatory domain and an intracellular signal transduction domain, the BCMA-binding domain comprises an antibody or a fragment thereof capable of specifically binding a BCMA, and the antibody comprises a heavy chain complementary determining region 1 (HCDR1), a heavy chain complementary determining region 2 (HCDR2) and a heavy chain complementary determining region 3 (HCDR3), wherein the HCDR1 comprises an amino acid sequence of SEQ ID NO: 9, the HCDR2 comprises an amino acid sequence of SEQ ID NO: 10, and the HCDR3 comprises an amino acid sequence of SEQ ID NO: 11, and the antibody comprises a light chain complementary determining region 1 (LCDR1), a light chain complementary determining region 2 (LCDR2) and a light chain complementary determining region 3 (LCDR3), and wherein the LCDR1 comprises an amino acid sequence of SEQ ID NO: 17, the LCDR2 comprises an amino acid sequence of SEQ ID NO: 18, and the LCDR3 comprises an amino acid sequence of SEQ ID NO: 19.
A battery system comprising: a backplane for engaging with one or more battery modules, the backplane comprising one or more backplane optical communication connectors; one or more battery modules each comprising a module optical communication connector, and each being configured to engage with the backplane by moving the battery module into engagement with the backplane such that the module optical communication connector engages with a corresponding backplane optical communication connector in a blind mate engagement; and one or more optical fibres terminating at the one or more backplane optical communication connectors. a backplane for engaging with one or more battery modules, the backplane comprising one or more backplane optical communication connectors; one or more battery modules each comprising a module optical communication connector, and each being configured to engage with the backplane by moving the battery module into engagement with the backplane such that the module optical communication connector engages with a corresponding backplane optical communication connector in a blind mate engagement; and
A gearbox for use in a work vehicle, comprising: a housing configured for housing a working fluid, said housing having an exterior housing surface, an inlet, an outlet, an end and a sidewall adjacent to said end; a gear train housed within the housing; and an auxiliary sump connected to the end of the housing, fluidly coupled to the outlet of the housing so that the working fluid can travel from the gear train to the auxiliary sump, and fluidly coupled to the inlet of the housing so that the working fluid can travel back from the auxiliary sump into the housing such that the working fluid circulates through the housing and the auxiliary sump, said auxiliary sump having an exterior sump surface by which the auxiliary sump is affixed to the exterior housing surface of the housing, the gearbox being characterised in that said end of the housing extends outwardly such that there is a gap between the sidewall of the housing and the auxiliary sump, thereby allowing each side of the auxiliary sump 114 to efficiently release heat. a housing configured for housing a working fluid, said housing having an exterior housing surface, an inlet, an outlet, an end and a sidewall adjacent to said end; a gear train housed within the housing; and an auxiliary sump connected to the end of the housing, fluidly coupled to the outlet of the housing so that the working fluid can travel from the gear train to the auxiliary sump, and fluidly coupled to the inlet of the housing so that the working fluid can travel back from the auxiliary sump into the housing such that the working fluid circulates through the housing and the auxiliary sump, said auxiliary sump having an exterior sump surface by which the auxiliary sump is affixed to the exterior housing surface of the housing, the gearbox being characterised in that said end of the housing extends outwardly such that there is a gap between the sidewall of the housing and the auxiliary sump, thereby allowing each side of the auxiliary sump 114 to efficiently release heat.
A method, comprising: receiving, by a universal access control device (206;502) installed between a reader device (234;404) of an access control system and an access control board (236;406) of the access control system from the reader device (234;404), a credential; forwarding, by the universal access control device (206,502), the credential to the access control board (236;406) of the access control system; storing, by the universal access control device (206;502), the credential upon receiving an indication from the access control board (236;404) that the credential is valid; receiving, from a user device via a wireless receiver of the universal access control device (206;502), an access token to be used in accessing a secure area or resource managed by the access control system; validating, by the universal access control device (206;502), the access token based at least in part on information received from a service provider server which is remote from the universal access control device (206;502) and is remote from the access control board (236;406); and upon determining that the access token is valid, transmitting, by the universal access control device (206;502), the stored credential to the access control board (236;406) to cause it to enable access to the secure area or resource. receiving, by a universal access control device (206;502) installed between a reader device (234;404) of an access control system and an access control board (236;406) of the access control system from the reader device (234;404), a credential; forwarding, by the universal access control device (206,502), the credential to the access control board (236;406) of the access control system; storing, by the universal access control device (206;502), the credential upon receiving an indication from the access control board (236;404) that the credential is valid; receiving, from a user device via a wireless receiver of the universal access control device (206;502), an access token to be used in accessing a secure area or resource managed by the access control system; validating, by the universal access control device (206;502), the access token based at least in part on information received from a service provider server which is remote from the universal access control device (206;502) and is remote from the access control board (236;406); and upon determining that the access token is valid, transmitting, by the universal access control device (206;502), the stored credential to the access control board (236;406) to cause it to enable access to the secure area or resource.
Mould segment for a green tyre with at least one clearance in the mould segment, wherein the at least one clearance has a first region and a second region, wherein the first region has a shape of a segment of a cylinder and the second region has a shape of a polyhedron, wherein the first region lies between the mould segment and the second region, wherein a first surface of the first region, which is oriented towards the mould segment, is at a maximum distance H from a boundary surface of the second region, wherein the boundary surface of the second region is oriented towards the first region, and wherein the first surface of the first region is convexly shaped and the curvature of the first surface of the first region follows a first arc of a circle, characterized in that the radius R of the first arc of a circle is formed in dependence on a width W of the second region, wherein the radius R of the first arc of a circle is formed in dependence on a pressure factor CPF, and wherein the amount r of the radius R, the amount w of the width W of the second region and the pressure factor CPF satisfy a first equation: CPF = 10 000/(r · w), wherein the pressure factor CPF assumes a value of 2 to 9 and preferably 4 to 7 when there is a width W of 20 mm and/or the pressure factor CPF assumes a value of 1 to 4.5 and preferably 2 to 3.5 when there is a width W of 25 mm and/or the pressure factor CPF assumes a value of 0.5 to 3 and preferably 1.5 to 2 when there is a width W of 30 mm and/or the pressure factor CPF assumes a value of 0.25 to 1.5 and preferably 0.75 to 1 when there is a width W of 35 mm.
A running gear for a sliding door, comprising a running gear holder for at least one pair of guide rollers arranged on a shaft, a mounting house having a device with an adjustment spindle and a control gear for adjusting the vertical position of the sliding door, and a base for inserting the housing into the sliding door, wherein the control gear is axially supported between two spaced guide surfaces (31, 33) in the mounting house and the adjustment spindle arranged thereon in a non-rotational manner is retained by retaining means in a radially free rotational position in the housing, characterized in that the adjustment spindle is retained on the mounting house by a snap acting device which is formed by two elastic tongues arranged laterally.
A wireless power reception device comprising: first to N th reception coils (1501 to 1503) disposed such that partial regions thereof overlap each other in the same plane for receiving a wireless power signal; first to N th output terminals connected to both ends of each of the first to N th reception coils (1501 to 1503) for transferring alternating current power induced by at least one of the first to N th reception coils (1501 to 1503); and a rectifier configured to convert the alternating current power, input from the first to N th output terminals, into direct current power, wherein the first to N th reception coils (1501 to 1503) are disposed such that turns of the first to Nth reception coils (1501 to 1503) mutually form rings, wherein each of the first to Nth reception coils (1501 to 1503) has a fan shape, characterized in that the first to N th reception coils (1501 to 1503) are disposed such that the turns of the first to N th reception coils (1501 to 1503) are parallel to each other in a linear section thereof, and that two different reception coil turns cross each other in the linear section. first to N th reception coils (1501 to 1503) disposed such that partial regions thereof overlap each other in the same plane for receiving a wireless power signal; first to N th output terminals connected to both ends of each of the first to N th reception coils (1501 to 1503) for transferring alternating current power induced by at least one of the first to N th reception coils (1501 to 1503); and a rectifier configured to convert the alternating current power, input from the first to N th output terminals, into direct current power, wherein the first to N th reception coils (1501 to 1503) are disposed such that turns of the first to Nth reception coils (1501 to 1503) mutually form rings, wherein each of the first to Nth reception coils (1501 to 1503) has a fan shape, characterized in that the first to N th reception coils (1501 to 1503) are disposed such that the turns of the first to N th reception coils (1501 to 1503) are parallel to each other in a linear section thereof, and that two different reception coil turns cross each other in the linear section.
A fault tolerance method for microwave transmission, comprising: arranging, by a receiving baseband device, a bitmap Cyclic Redundancy Check, CRC, code following a bitmap data in a timeslot data of a radio frame; and detecting the check result of the bitmap CRC code and processing the service data following the bitmap CRC code according to the check result; wherein the length of the bitmap data is 1 byte, and the value of the bitmap represents a fragment structure of a Time Division Multiplexing, TDM, data in the timeslot data; wherein the TDM data is divided into four types of data, and the bitmap data indicates a specific channel of the TDM data that are successively transmitted in current timeslot data; and the arranged bitmap CRC code is used for checking the bitmap data; wherein detecting the check result of the bitmap CRC code and processing the service data following the bitmap CRC code according to the check result comprises: detecting the bitmap data and the bitmap CRC code, performing a CRC check on the bitmap data to obtain the CRC result of the bitmap CRC, and when the check result of the bitmap CRC code is 'incorrect', which indicates that the bitmap data is incorrect, processing the service data following the bitmap CRC code by taking all the service data as Ethernet, ETH, data, and when the check result of the bitmap CRC code is 'correct', which indicates that that the bitmap data is correct, forwarding the service data following the bitmap CRC code normally. arranging, by a receiving baseband device, a bitmap Cyclic Redundancy Check, CRC, code following a bitmap data in a timeslot data of a radio frame; and detecting the check result of the bitmap CRC code and processing the service data following the bitmap CRC code according to the check result; wherein the length of the bitmap data is 1 byte, and the value of the bitmap represents a fragment structure of a Time Division Multiplexing, TDM, data in the timeslot data; wherein the TDM data is divided into four types of data, and the bitmap data indicates a specific channel of the TDM data that are successively transmitted in current timeslot data; and the arranged bitmap CRC code is used for checking the bitmap data; wherein detecting the check result of the bitmap CRC code and processing the service data following the bitmap CRC code according to the check result comprises: detecting the bitmap data and the bitmap CRC code, performing a CRC check on the bitmap data to obtain the CRC result of the bitmap CRC, and when the check result of the bitmap CRC code is 'incorrect', which indicates that the bitmap data is incorrect, processing the service data following the bitmap CRC code by taking all the service data as Ethernet, ETH, data, and when the check result of the bitmap CRC code is 'correct', which indicates that that the bitmap data is correct, forwarding the service data following the bitmap CRC code normally.
A synergistic microbicidal composition comprising: (a) at least one microbicide selected from the group consisting of 3,7-dimethylocta-1,6-dien-3-ol, -3,7-dimethylocta-2,6-dien-1-ol, and cis-3,7-dimethyl-2,6-octadien-1-ol; and (b) at least one microbicide selected from the group consisting of 3-isopropyl-5-methylphenol, 4-isopropyl-3-methylphenol, -2-(prop-1-enyl)phenol, 4-propylphenol, 2-tert-butylphenol, 2-sec-butylphenol, 2-n-propylphenol, 3-n-propylphenol, 4-n-butylphenol, 4-sec-butylphenol, and 3-tert-butylphenol.
A method of decoding video data comprising: decoding a plurality of blocks of video data, wherein at least one block of the plurality of blocks of video data is coded using an-intra pulse code modulation - IPCM - coding mode, wherein samples of a block coded using the IPCM coding mode are coded directly in a bitstream with a default quantization parameter - QP - value for the block equal to zero; predicting a non-zero QP value for the at least one block coded using the IPCM coding mode, based at least in part on a QP value for a quantization group that includes the at least one block coded using the IPCM coding mode; assigning the non-zero QP value for the at least one block coded using the IPCM coding mode; and performing deblocking filtering in an in-loop filtering process on the at least one block coded using the IPCM coding mode based on the assigned non-zero QP value for the at least one block, wherein performing the deblocking comprises, for an edge between two blocks that include the at least one block coded using the IPCM coding mode: i) determining an average QP value based on QP values of the two blocks either side of the edge including the assigned non-zero QP value for the least one block coded using the IPCM coding mode, and ii) determining a filter strength for the deblocking filter based on the average QP value, wherein a quantization group comprises a plurality of blocks that are each smaller than a minimum quantization group block size, the quantization group having a group QP value signaled for all of the plurality of blocks in the quantization group. decoding a plurality of blocks of video data, wherein at least one block of the plurality of blocks of video data is coded using an-intra pulse code modulation - IPCM - coding mode, wherein samples of a block coded using the IPCM coding mode are coded directly in a bitstream with a default quantization parameter - QP - value for the block equal to zero; predicting a non-zero QP value for the at least one block coded using the IPCM coding mode, based at least in part on a QP value for a quantization group that includes the at least one block coded using the IPCM coding mode; assigning the non-zero QP value for the at least one block coded using the IPCM coding mode; and performing deblocking filtering in an in-loop filtering process on the at least one block coded using the IPCM coding mode based on the assigned non-zero QP value for the at least one block, wherein performing the deblocking comprises, for an edge between two blocks that include the at least one block coded using the IPCM coding mode: i) determining an average QP value based on QP values of the two blocks either side of the edge including the assigned non-zero QP value for the least one block coded using the IPCM coding mode, and ii) determining a filter strength for the deblocking filter based on the average QP value, wherein a quantization group comprises a plurality of blocks that are each smaller than a minimum quantization group block size, the quantization group having a group QP value signaled for all of the plurality of blocks in the quantization group.
A shock absorber with multiple damping laws comprising a regulating body with a primary valve and a secondary valve, and an activating shaft with a plurality of channels (16, 17), the activating shaft being housed in an axial orifice of a piston pin that incorporates a plurality of orifices (31, 32, 33) intended to align by rotation of the activating shaft with the channels (16, 17) to determine a damping law and, with the second orifice in direct communication with the regulating body, so that the shock absorber is characterized in that the regulating body comprises a floating piston that has a toroidal configuration and is made of an elastic material, so that it gradually transfers a force to the primary valve depending on the pressure to which it is subjected.
Method for decoding a video data stream, comprising the steps of: - providing a first decoding means with a first buffer, wherein the first decoding means is configured to decode a first block of data and a second block of data from a video data stream using a first video transmission standard, wherein the second block of data is decoded by motion compensated prediction using reference data generated using the first block, and wherein the reference data are stored in the first buffer; - updating the reference data stored in the first buffer based on the second block of data to generate updated reference data; - providing a second decoding means with a second buffer, wherein the second decoding means is configured to decode video data streams using a second video transmission standard; - receiving a control signal indicating that the video data stream is to be subsequently transmitted using the second video transmission standard; - in response to receiving the control signal, initializing the second decoding means using the updated reference data stored in the first buffer, wherein initializing the second decoding means includes storing the updated reference data in the second buffer; and - subsequent to receiving the control signal, decoding a third block of data of the video data stream using the second decoding means, wherein the second decoding means decodes the third block of data by motion compensated prediction using the updated reference data stored in the second buffer and using the second video transmission standard. - providing a first decoding means with a first buffer, wherein the first decoding means is configured to decode a first block of data and a second block of data from a video data stream using a first video transmission standard, wherein the second block of data is decoded by motion compensated prediction using reference data generated using the first block, and wherein the reference data are stored in the first buffer; - updating the reference data stored in the first buffer based on the second block of data to generate updated reference data; - providing a second decoding means with a second buffer, wherein the second decoding means is configured to decode video data streams using a second video transmission standard; - receiving a control signal indicating that the video data stream is to be subsequently transmitted using the second video transmission standard; - in response to receiving the control signal, initializing the second decoding means using the updated reference data stored in the first buffer, wherein initializing the second decoding means includes storing the updated reference data in the second buffer; and - subsequent to receiving the control signal, decoding a third block of data of the video data stream using the second decoding means, wherein the second decoding means decodes the third block of data by motion compensated prediction using the updated reference data stored in the second buffer and using the second video transmission standard.