mhurhangee/patent-ind-claim-en huggingface dataset:
A free space optical communication system comprising: a constellation of a plurality of satellites , each of the plurality of satellites comprising: a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, characterised in that each ground site having two or more ground optical telescopes, and wherein as the satellite constellation passes a given ground site, one or more of the up/down-link telescopes of a given satellite are configured to track at least two ground optical telescopes of the given ground site, and switch between ground optical telescopes so as to send data to a ground optical telescope with the clearest line of sight to the given satellite. a constellation of a plurality of satellites , each of the plurality of satellites comprising: a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, characterised in that each ground site having two or more ground optical telescopes, and wherein as the satellite constellation passes a given ground site, one or more of the up/down-link telescopes of a given satellite are configured to track at least two ground optical telescopes of the given ground site, and switch between ground optical telescopes so as to send data to a ground optical telescope with the clearest line of sight to the given satellite.
A pile driver for driving a pile into a ground comprising a hammer , and an anvil for transferring energy resulting from the impact of a blow from the hammer to the pile and a pile measuring system suitable for determining parameter(s) of a pile during installation of the pile , and at least one positioning sensor , characterized in that the pile driver has a sleeve and in that said hammer , said anvil and said sleeve are placed at the top of the pile when the pile is being installed into the ground, wherein the anvil is placed on the uppermost part of the pile and the hammer is configured to abut the anvil whereas the sleeve surrounds the hammer , the anvil and the uppermost part of the pile , said pile measuring system comprising: the at least one positioning sensor , wherein the at least one positioning sensor is attached to a location on the sleeve and configured to measure position coordinates of the respective location on the sleeve ; a parameter calculator for determining the parameter(s) of the pile from the position coordinates measured by the at least one positioning sensor . the at least one positioning sensor , wherein the at least one positioning sensor is attached to a location on the sleeve and configured to measure position coordinates of the respective location on the sleeve ; a parameter calculator for determining the parameter(s) of the pile from the position coordinates measured by the at least one positioning sensor .
A watertight electrical board, comprising a cabinet made of polyester, with an IPX9 protection degree, and having a protection and venting system ; said board being characterized in that said protection and venting system comprises a casing , made of plastic material, which is internally provided with an oleophobic membrane made of expanded polytetrafluoroethylene (ePTFE); said casing comprising a fastening head and being inserted in a hole formed in a wall of said board ; said casing being locked in said hole by means of a fastening nut .
A fluid collection bag comprising: an inlet opening adapted to receive an inlet tube located on a first side of the fluid collection bag , the first side being an upper peripheral edge of the fluid collection bag ; an outlet opening adapted to receive an outlet tube located on a second side of the fluid collection bag , the second side being generally parallel with the first side of the fluid collection bag and being a lower peripheral edge of the fluid collection bag ; a first surface extending from the first side to the second side; and a second surface extending from the first side to the second side, the second surface opposing the first surface ; characterized by an attachment member having a base portion secured to a top portion of the fluid collection bag such that the attachment member is integrally formed with the fluid collection bag , the attachment member _including flexible hinges (181, 182; 281, 282), for engaging a support element , the flexible hinges (181, 182; 281, 282), capable of moving in opposing directions to engage the support element such that the fluid collection bag can be reversibly attached while the fluid collection bag is oriented with the first surface or the second opposing surface facing the support element, the flexible hinges (181, 182; 281, 282) being in a generally central location along the first side. an inlet opening adapted to receive an inlet tube located on a first side of the fluid collection bag , the first side being an upper peripheral edge of the fluid collection bag ; an outlet opening adapted to receive an outlet tube located on a second side of the fluid collection bag , the second side being generally parallel with the first side of the fluid collection bag and being a lower peripheral edge of the fluid collection bag ; a first surface extending from the first side to the second side; and a second surface extending from the first side to the second side, the second surface opposing the first surface ; characterized by an attachment member having a base portion secured to a top portion of the fluid collection bag such that the attachment member is integrally formed with the fluid collection bag , the attachment member _including flexible hinges (181, 182; 281, 282), for engaging a support element , the flexible hinges (181, 182; 281, 282), capable of moving in opposing directions to engage the support element such that the fluid collection bag can be reversibly attached while the fluid collection bag is oriented with the first surface or the second opposing surface facing the support element, the flexible hinges (181, 182; 281, 282) being in a generally central location along the first side.
A method of transmitting data over a wireless network by a multi-link device, in the following also referred to as MLD, the method comprising: performing independent EDCA channel access at the MLD on a first wireless link and a second wireless link , wherein the MLD comprises: a first wireless station, in the following also referred to as STA, associated with the first wireless link; and a second wireless STA associated with the second wireless link; setting a back-off counter for the first wireless STA and a back-off counter for the second wireless STA according to the independent EDCA channel access ; obtaining a transmission opportunity, TXOP, synchronously on the first wireless link and the second wireless link responsive to the back-off counters expiring ; and performing a multi-link operation at the MLD using the first wireless link and the second wireless link during the TXOP , wherein said obtaining a TXOP synchronously comprises: determining, by one of the first and second wireless STAs which has a back-off counter that has expired, not to initiate a frame exchange sequence over a wireless link associated with said one of the first and second wireless STAs until the other one of the first and second wireless STAs obtains a TXOP, wherein the one of the first and second wireless STAs that has delayed initiation of the frame exchange sequence performs physical and virtual carrier sense, CS, before initiating the frame exchange sequence. performing independent EDCA channel access at the MLD on a first wireless link and a second wireless link , wherein the MLD comprises: a first wireless station, in the following also referred to as STA, associated with the first wireless link; and a second wireless STA associated with the second wireless link; a first wireless station, in the following also referred to as STA, associated with the first wireless link; and a second wireless STA associated with the second wireless link; setting a back-off counter for the first wireless STA and a back-off counter for the second wireless STA according to the independent EDCA channel access ; obtaining a transmission opportunity, TXOP, synchronously on the first wireless link and the second wireless link responsive to the back-off counters expiring ; and performing a multi-link operation at the MLD using the first wireless link and the second wireless link during the TXOP , wherein said obtaining a TXOP synchronously comprises: determining, by one of the first and second wireless STAs which has a back-off counter that has expired, not to initiate a frame exchange sequence over a wireless link associated with said one of the first and second wireless STAs until the other one of the first and second wireless STAs obtains a TXOP, wherein the one of the first and second wireless STAs that has delayed initiation of the frame exchange sequence performs physical and virtual carrier sense, CS, before initiating the frame exchange sequence.
A computer-implemented method comprising: defining, in a buffer , a particle having an initial position in an absolute coordinate system independent of a graphical user interface, GUI, in which the particle is renderable ; assigning a memory range within the buffer to the particle ; generating, in the memory range, an updated position in the absolute coordinate system for the particle ; determining, in the memory range and from a combination of the initial position and the updated position, a plurality of vertices for the particle ; creating, from the plurality of vertices, a particle trail for the particle in the absolute coordinate system ; and storing the particle trail in the memory range within the buffer . defining, in a buffer , a particle having an initial position in an absolute coordinate system independent of a graphical user interface, GUI, in which the particle is renderable ; assigning a memory range within the buffer to the particle ; generating, in the memory range, an updated position in the absolute coordinate system for the particle ; determining, in the memory range and from a combination of the initial position and the updated position, a plurality of vertices for the particle ; creating, from the plurality of vertices, a particle trail for the particle in the absolute coordinate system ; and storing the particle trail in the memory range within the buffer .
Heating system for service water with a storage tank for a heat accumulator fluid , a heat exchanger , arranged in the storage tank , against which service water can impinge, and a heat pump , configured to heat up the heat accumulator fluid , which comprises an evaporator unit for absorbing heat and a heat transmission circuit for conducting a working fluid through the evaporator unit , wherein the heat pump comprises a pump for compressing the working fluid, wherein the heat transmission circuit includes a heating pipe which is immersed in the heat accumulator fluid , wherein the working fluid of the heat pump is, in the heating pipe , in heat-conducting contact with the heat accumulator fluid , characterised in that the heating pipe is formed by a single-walled pipe and the pipe can be impinged against on the inner side with the working fluid and on the outer side with the heat accumulator fluid , and that the evaporator unit can, for defrosting purposes, be heated via the heat transmission circuit , extracting heat from the heat accumulator fluid , wherein the heat pump is configured such that, in defrost mode, the direction of flow in the heat transmission circuit is reversed by reversing the pump .
Refrigeration appliance , in particular household refrigeration appliance, having a compartment for refrigerated goods and an evaporator plate arranged at a distance from the rear wall of the compartment for refrigerated goods in the compartment for refrigerated goods and at least one fastening element , by means of which the evaporator plate is attached to the rear wall , wherein the fastening element has a multi-layer fastening part , which is formed with a soft elastic layer and a hard layer , and the soft layer rests against the evaporator plate and the hard layer rests against the rear wall , the fastening part has a hole , in particular a borehole, which runs through the soft layer and into or through the hard layer , and a fastening bolt is provided, which runs through the hole and a hole in the evaporator plate , wherein the fastening bolt holds the evaporator plate at a distance from the rear wall, characterised in that the fastening bolt holds the evaporator plate at a distance from the hard layer and that the soft layer runs between a shaft of the fastening bolt and the evaporator plate so that radial contact between the shaft and the evaporator plate is prevented.
An apparatus for controlling traffic steering, applicable to a RAN node, the apparatus comprising: a determining unit configured to determine a traffic steering target; and a transmitting unit configured to transmit a traffic steering command to a UE, the traffic steering command directing the UE to steer corresponding traffic to the traffic steering target, characterised in that the traffic steering command includes either the traffic steering target and bearer IDs or a traffic steering ratio and a shift range. a determining unit configured to determine a traffic steering target; and a transmitting unit configured to transmit a traffic steering command to a UE, the traffic steering command directing the UE to steer corresponding traffic to the traffic steering target, characterised in that the traffic steering command includes either the traffic steering target and bearer IDs or a traffic steering ratio and a shift range.
An active oxygen barrier film comprising an irradiated multilayer film having an active oxygen barrier layer comprising an oxygen scavenging composition that is a blend of: (A) a thermoplastic resin having carbon-carbon double bonds substantially in its main chain; (B) a transition metal salt; and (C) an oxygen barrier polymer, wherein the active oxygen barrier layer is disposed between an outer sealant layer and an outer abuse layer, wherein the multilayer film has been irradiated with an electron beam radiation dosage between 2 and 200 kGy, and wherein the film has an oxygen scavenging rate that is at least 0.01 cm 3 oxygen per day per gram of the oxygen scavenging composition blend. (A) a thermoplastic resin having carbon-carbon double bonds substantially in its main chain; (B) a transition metal salt; and (C) an oxygen barrier polymer,
A recombinant canine adenovirus (rCAdV) vector comprising an expression cassette encoding at least one heterologous DNA operably linked to an equine herpesvirus-4 (EHV4) promoter, wherein the equine herpesvirus-4 (EHV4) promoter comprises SEQ ID NO.:31 or SEQ ID NO.:32 or the complementary nucleotide sequences thereof or a functional derivative thereof or the complementary nucleotide sequences thereof, wherein said promoter sequence leads to expression of a heterologous antigen, wherein the functional derivative of the promoter sequence has at least 95% sequence identity to SEQ ID NO.:31 or SEQ ID NO.:32.
Bidirectional auxiliary converter with an input side for supplying an external input voltage, - a first current path to at least one connectable consumer and a second current path parallel to the first current path from and to at least one connectable battery , and - an output converter in the second current path , - wherein in charging mode of the auxiliary converter for charging the at least one battery , the output converter can be operated as a rectifier by means of the external input voltage and in feedback mode of the auxiliary converter for supplying energy to at least individual consumers the output converter can be operated as an inverter by means of the at least one battery , - wherein the first and second current path are each connected to a secondary side of a transmitter , - wherein the output converter is located in the second current path following the transmitter and - wherein in feedback mode an alternating voltage which can reach the first current path and the at least one consumer connected there by means of the transmitter can be generated by means of the output converter , characterised in that - the transmitter comprises a first transformer and a second transformer , - the first and the second transformer are connected in parallel on the primary side and the two transformers form a shared primary circuit, - the first current path connects to the first transformer and - the second current path connects to the second transformer . - a first current path to at least one connectable consumer and a second current path parallel to the first current path from and to at least one connectable battery , and - an output converter in the second current path , - wherein in charging mode of the auxiliary converter for charging the at least one battery , the output converter can be operated as a rectifier by means of the external input voltage and in feedback mode of the auxiliary converter for supplying energy to at least individual consumers the output converter can be operated as an inverter by means of the at least one battery , - wherein the first and second current path are each connected to a secondary side of a transmitter , - wherein the output converter is located in the second current path following the transmitter and - wherein in feedback mode an alternating voltage which can reach the first current path and the at least one consumer connected there by means of the transmitter can be generated by means of the output converter , - the transmitter comprises a first transformer and a second transformer , - the first and the second transformer are connected in parallel on the primary side and the two transformers form a shared primary circuit, - the first current path connects to the first transformer and - the second current path connects to the second transformer .
A method for determining a precoding matrix indicator, wherein the method comprises: receiving , by a user equipment, a reference signal sent by a base station; characterized in that the method further comprises: selecting , by the user equipment, based on the reference signal, a precoding matrix from a codebook, wherein a precoding matrix W comprised in the codebook is a product of two matrices W 1 and W 2 , wherein W 1 is a block diagonal matrix, that is, W 1 = diag { X 1 ,..., X N B }, wherein each block matrix X i is a Kronecker product of a matrix A i and a matrix B i , that is, X i = A i ⊗ B i , and 1 ≤ i ≤ N B , wherein each column of the matrix A i or of the matrix B i in the block matrix X i = A i ⊗ B i is a discrete Fourier transform DFT vector or is a column vector of a Hadamard matrix; and the W 1 comprises at least one block matrix, that is, the number of block matrices is N B ≥ 1; and sending , by the user equipment, a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, so that the base station obtains the precoding matrix according to the PMI. receiving , by a user equipment, a reference signal sent by a base station; characterized in that the method further comprises: selecting , by the user equipment, based on the reference signal, a precoding matrix from a codebook, wherein a precoding matrix W comprised in the codebook is a product of two matrices W 1 and W 2 , wherein W 1 is a block diagonal matrix, that is, W 1 = diag { X 1 ,..., X N B }, wherein each block matrix X i is a Kronecker product of a matrix A i and a matrix B i , that is, X i = A i ⊗ B i , and 1 ≤ i ≤ N B , wherein each column of the matrix A i or of the matrix B i in the block matrix X i = A i ⊗ B i is a discrete Fourier transform DFT vector or is a column vector of a Hadamard matrix; and the W 1 comprises at least one block matrix, that is, the number of block matrices is N B ≥ 1; and sending , by the user equipment, a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, so that the base station obtains the precoding matrix according to the PMI. selecting , by the user equipment, based on the reference signal, a precoding matrix from a codebook, wherein a precoding matrix W comprised in the codebook is a product of two matrices W 1 and W 2 , wherein W 1 is a block diagonal matrix, that is, W 1 = diag { X 1 ,..., X N B }, wherein each block matrix X i is a Kronecker product of a matrix A i and a matrix B i , that is, X i = A i ⊗ B i , and 1 ≤ i ≤ N B , wherein each column of the matrix A i or of the matrix B i in the block matrix X i = A i ⊗ B i is a discrete Fourier transform DFT vector or is a column vector of a Hadamard matrix; and the W 1 comprises at least one block matrix, that is, the number of block matrices is N B ≥ 1; and sending , by the user equipment, a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, so that the base station obtains the precoding matrix according to the PMI.