mhurhangee/patent-ind-claim-en huggingface dataset:
A method of serving a data stream to a target mobile terminal in a cellular communications network comprising two transmitting sites , said method comprising: designating a first transmitting site and a second transmitting site of the two transmitting sites as cooperating sites, wherein the first transmitting site is designated as a serving site and the second transmitting site is designated as a phase reference site, and wherein each of the first and second transmitting sites has multiple transmitter antennas; receiving, only at the first transmitting site , a precoder reported by the said target mobile terminal for phase correction, the precoder being selected by the target mobile terminal from a set of precoders in a constant amplitude codebook, wherein the precoders are defined by corresponding two-element entries T , [1,j] T ,[1, -1] T , and [1, -j] T , the first element of each of the two-element entries being assigned to a first antenna port associated with the second transmitting site and the second element of each of the two-element entries being assigned to a second antenna port associated with the first transmitting site , wherein the two-element entries T , [1, j] T ,[1, -1] T , and [1, -j] T represent, respectively, a 0° phase shift, a 90° phase shift, a 180° phase shift, and a 270° phase shift between the second antenna port associated with the first transmitting site and the first antenna port associated with the second transmitting site ; and encoding, at said first transmitting site , transmissions of said data stream to said target mobile terminal using the reported precoder. designating a first transmitting site and a second transmitting site of the two transmitting sites as cooperating sites, wherein the first transmitting site is designated as a serving site and the second transmitting site is designated as a phase reference site, and wherein each of the first and second transmitting sites has multiple transmitter antennas; receiving, only at the first transmitting site , a precoder reported by the said target mobile terminal for phase correction, the precoder being selected by the target mobile terminal from a set of precoders in a constant amplitude codebook, wherein the precoders are defined by corresponding two-element entries T , [1,j] T ,[1, -1] T , and [1, -j] T , the first element of each of the two-element entries being assigned to a first antenna port associated with the second transmitting site and the second element of each of the two-element entries being assigned to a second antenna port associated with the first transmitting site , wherein the two-element entries T , [1, j] T ,[1, -1] T , and [1, -j] T represent, respectively, a 0° phase shift, a 90° phase shift, a 180° phase shift, and a 270° phase shift between the second antenna port associated with the first transmitting site and the first antenna port associated with the second transmitting site ; and encoding, at said first transmitting site , transmissions of said data stream to said target mobile terminal using the reported precoder.
A textile printer with a hold-down pallet , the textile printer further comprising a garment setting position and a printing area , the pallet comprising a central board and characterized in that the pallet further comprises flaps able to alternate between an open position to allow placing of a garment and a closed position in which said flaps hold a garment firmly on the board for printing, wherein the pallet is configured to travel between a garment setting position and a printing area and comprises a closing mechanism configured to place the flaps in the closed position prior to entering the printing area and to place the flaps in the open position when entering the garment setting position , characterized in that said closing mechanism comprises a lever and the textile printer further comprises an engagement device for engaging the lever of said pallet , said lever being configured to act on said flaps to move said flaps between said open position and said closed position upon engagement and upon disengagement, said moving of said flaps being according to a current position of the pallet relative to said printing area and said garment setting position . wherein the pallet is configured to travel between a garment setting position and a printing area and comprises a closing mechanism configured to place the flaps in the closed position prior to entering the printing area and to place the flaps in the open position when entering the garment setting position , characterized in that said closing mechanism comprises a lever and the textile printer further comprises an engagement device for engaging the lever of said pallet , said lever being configured to act on said flaps to move said flaps between said open position and said closed position upon engagement and upon disengagement, said moving of said flaps being according to a current position of the pallet relative to said printing area and said garment setting position .
A geocomposite which is suitable for the consolidation and/or drainage of ground, composed of a plurality of layers comprising at least a first web of geotextile material and at least a second web of geotextile material which are thermofixed to respective sides of an intermediate separation layer which is produced by means of at least one geomat of entangled plastics threads having a thickness of approximately 4 mm or more, in order to form a basic geocomposite , in which there is thermofixed to at least one of the first web and the second web of the basic geocomposite at least one additional layer of a geosynthetic selected from the group comprising geogrids, geonets, geomats, geotextiles, geomembranes or a combination or stratification thereof.
A docking station comprising: a processor configured to process a received triggering signal that comprises a current location of a docking wireless device ; a transceiver module coupled to the processor , wherein the processor is configured to activate the transceiver module based upon the received triggering signal; a coupler antenna coupled to the transceiver module , wherein the coupler antenna is configured to facilitate data communication with the docking wireless device ; and a signal detector configured to detect and measure a received signal strength indicator, RSSI, of a Bluetooth signal , characterized in that the signal detector is further configured to generate the triggering signal based upon the measured RSSI of the Bluetooth signal. a processor configured to process a received triggering signal that comprises a current location of a docking wireless device ; a transceiver module coupled to the processor , wherein the processor is configured to activate the transceiver module based upon the received triggering signal; a coupler antenna coupled to the transceiver module , wherein the coupler antenna is configured to facilitate data communication with the docking wireless device ; and a signal detector configured to detect and measure a received signal strength indicator, RSSI, of a Bluetooth signal , characterized in that the signal detector is further configured to generate the triggering signal based upon the measured RSSI of the Bluetooth signal.
Method for monitoring an automation system (A), wherein a plurality of field devices (FG1, FG2) and a plurality of further system components (AK1, AK2) are integrated in the system (A), wherein the field devices (FG1, FG2) generate data, which is in particular measurement data, control data, calibration/parameterization data, diagnostic data, history data and/or status data, and wherein the field devices (FG1, FG2) communicate with each other and with at least one higher-level unit (PLC) by means of first and second higher-level units (PLC), control data, calibration/parameterization data, diagnostic data, history data and/or status data, and wherein the field devices (FG1, FG2) are in communication with each other and with at least one higher-level unit (PLC) by means of a first communication network (KN), characterized by : - Continuous recording of production data (PD) from the system (A), whereby the production data (PD) represents a correlated quantity of products produced over defined time intervals; - calculating individual load data for each of the system components (AK1, AK2) and each of the field devices (FG1, FG2), wherein the load data represents an increase in a degree of load for each of the system components (AK1, AK2) and each of the field devices (FG1, FG2) per product produced; - Calculate the degree of stress for each of the system components (AK1, AK2) and for each of the field devices (FG1, FG2) based on the recorded production data (PD) by summing up the individual stress data; and - Creation of a warning notification in the event that the calculated level of load on a field device (FG1, FG2) or a system component (AK1, AK2) exceeds a threshold defined individually for each system component (AK1, AK2) and each field device (FG1, FG2). - Continuous recording of production data (PD) from the system (A), whereby the production data (PD) represents a correlated quantity of products produced over defined time intervals; - calculating individual load data for each of the system components (AK1, AK2) and each of the field devices (FG1, FG2), wherein the load data represents an increase in a degree of load for each of the system components (AK1, AK2) and each of the field devices (FG1, FG2) per product produced; - Calculate the degree of stress for each of the system components (AK1, AK2) and for each of the field devices (FG1, FG2) based on the recorded production data (PD) by summing up the individual stress data; and - Creation of a warning notification in the event that the calculated level of load on a field device (FG1, FG2) or a system component (AK1, AK2) exceeds a threshold defined individually for each system component (AK1, AK2) and each field device (FG1, FG2).
A polymer hydrogel comprising a) a polymer formed by the crosslinking reaction of a polymeric unit A according to formula (I) , with a crosslinking unit B according to formula (II) , b) and water, wherein n = 100 - 10,000, preferable 250 - 2500, more preferable 500 - 1500; m = independently 2-10, preferably 3 or 4; FG is a functional moiety that can be covalently coupled to the complementary functional moiety F1 or F2 of the crosslinking unit (B) ; k = 0.01 − 0.05 ; h = 0, 1 or 2; the spacer is an organic moiety, having a main chain comprising at least two functional moieties F1 and F2, wherein the length of the crosslinker in the extended conformation as determined by molecular modeling (including spacer and functional groups F1 and F2) is between 2.5 and 12 nm, or wherein the length is between 20 and 80 atoms; wherein the concentration of functional groups FG ranges between 20-200 μM; and wherein the molar ratio between FG and functional groups F1, F2, F ranges between 0.5: 1 and 2:1. a) a polymer formed by the crosslinking reaction of a polymeric unit A according to formula (I) , with a crosslinking unit B according to formula (II) , b) and water, wherein n = 100 - 10,000, preferable 250 - 2500, more preferable 500 - 1500; m = independently 2-10, preferably 3 or 4; FG is a functional moiety that can be covalently coupled to the complementary functional moiety F1 or F2 of the crosslinking unit (B) ; k = 0.01 − 0.05 ; h = 0, 1 or 2; the spacer is an organic moiety, having a main chain comprising at least two functional moieties F1 and F2, wherein the length of the crosslinker in the extended conformation as determined by molecular modeling (including spacer and functional groups F1 and F2) is between 2.5 and 12 nm, or wherein the length is between 20 and 80 atoms; wherein the concentration of functional groups FG ranges between 20-200 μM; and wherein the molar ratio between FG and functional groups F1, F2, F ranges between 0.5: 1 and 2:1. n = 100 - 10,000, preferable 250 - 2500, more preferable 500 - 1500; m = independently 2-10, preferably 3 or 4; FG is a functional moiety that can be covalently coupled to the complementary functional moiety F1 or F2 of the crosslinking unit (B) ; k = 0.01 − 0.05 ; h = 0, 1 or 2; the spacer is an organic moiety, having a main chain comprising at least two functional moieties F1 and F2, wherein the length of the crosslinker in the extended conformation as determined by molecular modeling (including spacer and functional groups F1 and F2) is between 2.5 and 12 nm, or wherein the length is between 20 and 80 atoms; wherein the concentration of functional groups FG ranges between 20-200 μM; and wherein the molar ratio between FG and functional groups F1, F2, F ranges between 0.5: 1 and 2:1.
An implantable prosthesis system for treating an occlusion in a first vessel, the prosthesis system comprising: a fistula stent implantable in a fistula between a first cavity and a second cavity , the fistula stent configured to span interstitial tissue (T) between the first cavity and the second cavity , the fistula stent comprising: a proximal end; a distal end; sidewalls between the proximal end and the distal end; a lumen defined by the sidewalls; a first longitudinal section having a first diameter, the first longitudinal section configured to anchor in the first cavity ; a second longitudinal section having a second diameter different than the first diameter, the second longitudinal section configured to anchor in the second cavity ; a third longitudinal section tapering between the first longitudinal section and the second longitudinal section , wherein at least one of the first longitudinal section and the third longitudinal section comprises a porosity sufficient to direct fluid flow through the lumen substantially without perfusing through the sidewalls; and a venous stent comprising a proximal end segment configured to overlap with the second longitudinal section of the fistula stent , wherein the venous stent is configured to line a sidewall of the second cavity to cover collateral vessels of the second cavity and to disrupt a valve located in the second cavity . a proximal end; a distal end; sidewalls between the proximal end and the distal end; a lumen defined by the sidewalls; a first longitudinal section having a first diameter, the first longitudinal section configured to anchor in the first cavity ; a second longitudinal section having a second diameter different than the first diameter, the second longitudinal section configured to anchor in the second cavity ; a third longitudinal section tapering between the first longitudinal section and the second longitudinal section , wherein at least one of the first longitudinal section and the third longitudinal section comprises a porosity sufficient to direct fluid flow through the lumen substantially without perfusing through the sidewalls; and a venous stent comprising a proximal end segment configured to overlap with the second longitudinal section of the fistula stent , wherein the venous stent is configured to line a sidewall of the second cavity to cover collateral vessels of the second cavity and to disrupt a valve located in the second cavity .
A method for secure computation of inputs of t client devices which are randomly selected from a set of N client devices , the method comprising: each client device i (i=1,...,N) of the set of N client devices generating a random binary vector b of weight t in an obfuscated domain, preferably the obfuscated domain being an encrypted domain or a secret-sharing domain, each client device i transforming an input value x i into the obfuscated domain and determining the product b i · x i of bit value b i at position i of the random binary vector and the input value x i in the obfuscated domain; and, performing a secure computation in the obfuscated domain on the basis of the products b i · x i (i=1,...,N); the generating of the random binary vector b of weight t in the obfuscated domain by each of the client devices including: - determining an initial binary vector of weight t by setting the first t bits to one: b i = 1, 1 ≤ i ≤ t, and all further bits to zero: b i = 0, t < i ≤ N; - generating the random binary vector b based on the initial binary vector, the generating including for each position n (1 ≤ n ≤ t) in the binary vector jointly determining a random number r in the range {n,n+1,...N}; and, using the random number r for swapping a binary value at position n with a binary value at position r of the binary vector b. each client device i (i=1,...,N) of the set of N client devices generating a random binary vector b of weight t in an obfuscated domain, preferably the obfuscated domain being an encrypted domain or a secret-sharing domain, each client device i transforming an input value x i into the obfuscated domain and determining the product b i · x i of bit value b i at position i of the random binary vector and the input value x i in the obfuscated domain; and, performing a secure computation in the obfuscated domain on the basis of the products b i · x i (i=1,...,N); the generating of the random binary vector b of weight t in the obfuscated domain by each of the client devices including: - determining an initial binary vector of weight t by setting the first t bits to one: b i = 1, 1 ≤ i ≤ t, and all further bits to zero: b i = 0, t < i ≤ N; - generating the random binary vector b based on the initial binary vector, the generating including for each position n (1 ≤ n ≤ t) in the binary vector jointly determining a random number r in the range {n,n+1,...N}; and, using the random number r for swapping a binary value at position n with a binary value at position r of the binary vector b. - determining an initial binary vector of weight t by setting the first t bits to one: b i = 1, 1 ≤ i ≤ t, and all further bits to zero: b i = 0, t < i ≤ N; - generating the random binary vector b based on the initial binary vector, the generating including for each position n (1 ≤ n ≤ t) in the binary vector jointly determining a random number r in the range {n,n+1,...N}; and, using the random number r for swapping a binary value at position n with a binary value at position r of the binary vector b.
Method for obtaining a joint between elements of different materials, in which the joint comprises at least one element of metal material and at least one element of plastic material , having respective contact surfaces , wherein said contact surfaces of said at least one element of metal material and said at least one element of plastic material are pressed against each other with a simultaneous application of heat, the method being characterized in that it further comprises the step of applying a cladding (C) of metal material and/or plastic material above said joint, by additive manufacturing technology. in which the joint comprises at least one element of metal material and at least one element of plastic material , having respective contact surfaces , wherein said contact surfaces of said at least one element of metal material and said at least one element of plastic material are pressed against each other with a simultaneous application of heat, the method being characterized in that it further comprises the step of applying a cladding (C) of metal material and/or plastic material above said joint, by additive manufacturing technology.
A system for operating a drilling rig on a drilling vessel comprising a heave compensation arrangement adapted to passively compensate a drilling tool , said tool is suspended from at least one wire rope , said at least one wire rope is extending over at least one sheave on top of a drilling tower , said compensation arrangement comprising at least one compensation sheave carried by a compensator frame , said at least one wire rope is extending over said compensator sheave and coupled to a winch , characterised in that said compensator arrangement is operatively arranged between the at least one compensator sheave and the winch , said compensator arrangement having a plurality of compensator cylinders adapted to compensate different loads, some of said compensator cylinders (62a-62c) are selectively attachable to said compensator sheave frame .
A floating buoy comprising: a buoy hull ; a tower extending outwardly from the hull ; a plurality of sensors mounted on one of the buoy hull , within the buoy hull , and on the tower ; an autonomous power system configured to provide electrical power to each of the plurality of sensors; wherein the plurality of sensors includes a Light Detection and Ranging (LiDAR) wind speed measurement sensor mounted within a gimbal having two axes of rotation (A1, A2); characterized in the plurality of sensors includes at least one met-ocean sensor , at least one ecological sensor , and a second wind speed measurement sensor ; wherein the tower includes a plurality of tower legs radially arranged on the hull , a first tower ring being attached to the legs ; wherein a second tower ring is connected to the first tower ring by a radially arranged lattice having a plurality of lattice members , the second tower ring also including gimbal attachment members ; wherein the LiDAR wind speed measurement sensor is mounted within a LiDAR housing having a lens , and wherein the LiDAR housing is mounted within a LiDAR chassis ; and wherein the floating buoy further includes a protective bumper attached to one or more sides of the LiDAR chassis , the bumper being configured to prevent impact between the LiDAR chassis and the tower , and between the LiDAR chassis and a sensor mounted on the tower . a buoy hull ; a tower extending outwardly from the hull ; a plurality of sensors mounted on one of the buoy hull , within the buoy hull , and on the tower ;