mhurhangee/ep-ind-claims huggingface dataset:
A method of signal transmission and reception for a cellular wireless network, the method comprising: detecting signal strength of downlink signals transmitted from a plurality of base transceiver stations (BTS 1-7) and received by a mobile station; selecting a plurality of candidate serving base transceiver stations based on the detected signal strength; transmitting signals containing information indicating the candidate serving base transceiver stations from the mobile station to current uplink serving base transceiver stations; forwarding, from the current uplink serving base transceiver stations to an element management server, information indicating the candidate serving base transceiver stations; at the element management server, selecting a first group of serving base transceiver stations from the candidate serving base transceiver stations, using the forwarded information; at the element management server, determining beam forming weighing factors for the first group of serving base transceiver stations; and sending signals between the mobile station and the first group of serving base transceiver stations using beam forming technology with the beam forming weighing factors to reduce interference received by the mobile station. detecting signal strength of downlink signals transmitted from a plurality of base transceiver stations (BTS 1-7) and received by a mobile station; selecting a plurality of candidate serving base transceiver stations based on the detected signal strength; transmitting signals containing information indicating the candidate serving base transceiver stations from the mobile station to current uplink serving base transceiver stations; forwarding, from the current uplink serving base transceiver stations to an element management server, information indicating the candidate serving base transceiver stations; at the element management server, selecting a first group of serving base transceiver stations from the candidate serving base transceiver stations, using the forwarded information; at the element management server, determining beam forming weighing factors for the first group of serving base transceiver stations; and sending signals between the mobile station and the first group of serving base transceiver stations using beam forming technology with the beam forming weighing factors to reduce interference received by the mobile station.
A composition for controlling arthropods comprising: (i) Geraniol, in an amount of from 5% to 26% by weight; (ii) Benzyl alcohol, in an amount of from 10% to 48% by weight; (iii) Isopropyl myristate, in an amount of from 10% to 30% by weight; and (iv) Butyl lactate, in an amount of from 20% to 40% by weight; wherein each of the amounts is relative to the sum of the stated components in the composition. (i) Geraniol, in an amount of from 5% to 26% by weight; (ii) Benzyl alcohol, in an amount of from 10% to 48% by weight; (iii) Isopropyl myristate, in an amount of from 10% to 30% by weight; and (iv) Butyl lactate, in an amount of from 20% to 40% by weight;
An uninterruptible power supply, UPS, system, comprising: an AC input configured to be coupled to an AC power source; a multiphase AC output (15a, 15b, 15c) configured to be coupled to a load; a rectifier configured to receive power from the AC input; an inverter having an output coupled to the AC output; a DC link coupling an output of the rectifier to an input of the inverter; a bypass circuit configured to selectively couple and decouple the AC input and the AC output; and a control circuit configured to cause the inverter to load a first phase at the AC output and transfer power to a second phase at the AC output to compensate for phase imbalance of a load coupled to the AC output when the AC input is coupled to the AC output by the bypass circuit. an AC input configured to be coupled to an AC power source; a multiphase AC output (15a, 15b, 15c) configured to be coupled to a load; a rectifier configured to receive power from the AC input; an inverter having an output coupled to the AC output; a DC link coupling an output of the rectifier to an input of the inverter; a bypass circuit configured to selectively couple and decouple the AC input and the AC output; and a control circuit configured to cause the inverter to load a first phase at the AC output and transfer power to a second phase at the AC output to compensate for phase imbalance of a load coupled to the AC output when the AC input is coupled to the AC output by the bypass circuit.
A method for increasing the production of a protein of interest in a Gram-positive bacterial cell comprising: (a) obtaining a modified Gram-positive bacterial cell producing an increased amount of a protein of interest, wherein the modified bacterial cell comprises a modification which increases rasP gene expression, wherein the modification which increases rasP gene expression is a modification to an endogenous chromosomal rasP gene or wherein the modification which increases rasP gene expression is an exogenous polynucleotide comprising a rasP gene, and (b) culturing the modified cell under conditions such that the POI is expressed, wherein the modified bacterial cell producing an increased amount of a POI is relative to the production of the same protein of interest in an unmodified parental Gram-positive bacterial cell. (a) obtaining a modified Gram-positive bacterial cell producing an increased amount of a protein of interest, wherein the modified bacterial cell comprises a modification which increases rasP gene expression, wherein the modification which increases rasP gene expression is a modification to an endogenous chromosomal rasP gene or wherein the modification which increases rasP gene expression is an exogenous polynucleotide comprising a rasP gene, and (b) culturing the modified cell under conditions such that the POI is expressed, wherein the modified bacterial cell producing an increased amount of a POI is relative to the production of the same protein of interest in an unmodified parental Gram-positive bacterial cell.
A spinal implant comprising a series of sections (32, 132, 230) hinged together and a balloon (50, 150) connected to the sections, the balloon having a curved configuration, the implant (30, 130) having a first delivery configuration and a second curved configuration, the implant having a more linear configuration in the first delivery configuration than in the second curved configuration, characterized in that the implant assumes the first delivery configuration prior to delivery to the disc space, moves from the first delivery configuration toward the second curved configuration during delivery to the disc space, and maintains the second curved configuration after placement within the disc space and expansion of the balloon.
A method for controlling a digital real-time communication, With a media gateway switch which is connected to at least two media gateways, the media gateways taking over the actual media manipulation functions, the media gateway switch capturing the properties of the media gateways and providing them as overall properties, comprising the steps: - Querying the properties of the media gateways and periodically querying additional features, such as media gateway usage, available bandwidth to media gateways, existing licenses, media gateway version, and / or free capacity to monitor the state of each media gateway, Whereby the different properties so obtained are aggregated into a total property, In the case of a connection setup by a terminal with the gateway switch, acquisition of the terminal properties and / or transfer of the overall properties of the media gateways, via the gateway switch to the terminal via SDP protocol, the overall properties, which are provided to a terminal during a connection setup, Dynamically adjusted according to one or more of the following criteria: codec according to quality standards, codec according to available bandwidth, codec according to costs of use of media gateways, codec after utilization of media gateways, codec by property of the terminal, codec by transmission medium, codec by Secure QoS for the owner of the terminal, codec according to direction and activity of media streams; - determining, by means of the negotiated properties, the media gateway switch which is responsible for the terminal; - Forward the digital real-time communication through the media gateway switch to the relevant media gateway. - Querying the properties of the media gateways and periodically querying additional features, such as media gateway usage, available bandwidth to media gateways, existing licenses, media gateway version, and / or free capacity to monitor the state of each media gateway, Whereby the different properties so obtained are aggregated into a total property, In the case of a connection setup by a terminal with the gateway switch, acquisition of the terminal properties and / or transfer of the overall properties of the media gateways, via the gateway switch to the terminal via SDP protocol, the overall properties, which are provided to a terminal during a connection setup, Dynamically adjusted according to one or more of the following criteria: codec according to quality standards, codec according to available bandwidth, codec according to costs of use of media gateways, codec after utilization of media gateways, codec by property of the terminal, codec by transmission medium, codec by Secure QoS for the owner of the terminal, codec according to direction and activity of media streams; - determining, by means of the negotiated properties, the media gateway switch which is responsible for the terminal; - Forward the digital real-time communication through the media gateway switch to the relevant media gateway.
A fluid flow control device comprising: a valve body defining an inlet, an outlet, and a fluid flow path extending from the inlet to the outlet; a valve seat ring coupled to the valve body and defining an orifice through which the fluid flow path passes; a cage coupled to the valve body and defining an interior bore, the cage including at least one cage passage through which the fluid flow path passes; a control element slidably disposed within the interior bore of the cage, the control element defining an interior bore, the control element and the valve seat ring cooperating to control fluid flow through the valve body; and a particle catcher at least partially disposed within the interior bore of the control element, the particle catcher having a particle catcher body defining an inner flow path upwardly and further defining at least one particle catcher passage through which the fluid flow path passes; wherein an outer surface of the particle catcher and an inner surface of the control element form a particle catching portion, characterized in that the at least one particle catcher passage directs the fluid flow path downwardly into the particle catching portion. a valve body defining an inlet, an outlet, and a fluid flow path extending from the inlet to the outlet; a valve seat ring coupled to the valve body and defining an orifice through which the fluid flow path passes; a cage coupled to the valve body and defining an interior bore, the cage including at least one cage passage through which the fluid flow path passes; a control element slidably disposed within the interior bore of the cage, the control element defining an interior bore, the control element and the valve seat ring cooperating to control fluid flow through the valve body; and a particle catcher at least partially disposed within the interior bore of the control element, the particle catcher having a particle catcher body defining an inner flow path upwardly and further defining at least one particle catcher passage through which the fluid flow path passes; wherein an outer surface of the particle catcher and an inner surface of the control element form a particle catching portion, characterized in that the at least one particle catcher passage directs the fluid flow path downwardly into the particle catching portion.
A pharmaceutical composition comprising a pharmaceutical agent and a pharmaceutically acceptable carrier, wherein the pharmaceutically acceptable carrier comprises albumin, wherein the ratio (w/w) of albumin to the pharmaceutical agent is 1:1 to 9:1, and wherein the pharmaceutical composition comprises particles or droplets having a size less than 200 nm, wherein the pharmaceutical agent is selected from taxane, camptothecin, propofol, amiodarone, cyclosporine, amphotericin, liothyronine, epothilone, colchicine, thyroid hormone, corticosteroid, melatonin, tacrolimus, mycophenolic acid, and derivatives thereof or wherein the pharmaceutical agent is docetaxel or rapamycin.
A radar system, comprising: a plurality of receive channels (402, 404, 406); a first radar detector stage configured to detect, through said receive channels, at least one target using a detector threshold; a noise correlation determination unit configured to determine a noise correlation level indicative of noise correlation between the receive channels if the first radar detector stage has detected the target, wherein the noise correlation level is indicative of a type of noise affecting the radar system, wherein the type of noise is predominantly thermal noise if the noise correlation level is zero, and wherein the type of noise is predominantly phase noise if the noise correlation level has any other value greater than zero and lower than a maximum correlation level; a detector threshold adjustment unit configured to adjust the detector threshold in dependence on the noise correlation level determined by the noise correlation determination unit, wherein the detector threshold is only adjusted if the type of noise is predominantly phase noise; a second radar detector stage configured to detect the target using the adjusted detector threshold. a plurality of receive channels (402, 404, 406); a first radar detector stage configured to detect, through said receive channels, at least one target using a detector threshold; a noise correlation determination unit configured to determine a noise correlation level indicative of noise correlation between the receive channels if the first radar detector stage has detected the target, wherein the noise correlation level is indicative of a type of noise affecting the radar system, wherein the type of noise is predominantly thermal noise if the noise correlation level is zero, and wherein the type of noise is predominantly phase noise if the noise correlation level has any other value greater than zero and lower than a maximum correlation level; a detector threshold adjustment unit configured to adjust the detector threshold in dependence on the noise correlation level determined by the noise correlation determination unit, wherein the detector threshold is only adjusted if the type of noise is predominantly phase noise; a second radar detector stage configured to detect the target using the adjusted detector threshold.
Method for operating a gas turbine plant with a compressor for compressing combustion air drawn in from the environment, a combustion chamber for producing hot gas by burning a fuel with the compressed combustion air, and a turbine in which the hot gas from the combustion chamber is expanded to perform work, in which method temperatures (T2, T7) and pressures (p3, p4, p5, p6, p7) are measured at various points of the gas turbine plant, and from the measured temperatures (T2, T7) and pressures (p3, p4, p5, p6, p7), a combustion chamber outlet temperature is derived and used to regulate the gas turbine plant, characterised in that the composition of the gas is determined, wherein during determination of the gas composition at least the water content in the exhaust gas of the turbine is determined, and wherein at least the determined water content in the exhaust gas of the turbine is taken into account in the derivation of the combustion chamber outlet temperature.
An encoder (100; 300; 500; 700) for receiving a video frame and performing encoding processes to generate an encoded bitstream, the encoder comprising: a fidelity enhancement block, for performing a fidelity enhancement technique on processed data of the video frame, and generating fidelity enhancement parameters comprising parameters associated with the fidelity enhancement technique; and an entropy coding block, coupled to the fidelity enhancement block, for encoding the fidelity enhancement parameters, and embedding the encoded fidelity enhancement parameters into the encoded bitstream; characterized in that the fidelity enhancement technique corresponds to Wiener filtering; and the fidelity enhancement block, when performing the fidelity enhancement technique on the processed data of the video frame, Wiener filters a smaller quad-tree partition of the video frame to generate auto-correlation and cross-correlation matrices for the smaller quad-tree partition which is one of the four quad-tree partitions into which a larger quad-tree partition of the video frame is quad-tree partitioned, and reuses the generated auto-correlation and cross-correlation matrices for Wiener filtering the larger quad-tree partition including the smaller quad-tree partition in order to determine a quad-tree partition structure of the video frame causing the lowest cost when Wiener filtering the video frame; wherein the fidelity enhancement parameters comprises at least one parameter associated with the determined quad-tree partition structure of the video frame, wherein the fidelity enhancement block is in a reconstruction loop. a fidelity enhancement block, for performing a fidelity enhancement technique on processed data of the video frame, and generating fidelity enhancement parameters comprising parameters associated with the fidelity enhancement technique; and an entropy coding block, coupled to the fidelity enhancement block, for encoding the fidelity enhancement parameters, and embedding the encoded fidelity enhancement parameters into the encoded bitstream; the fidelity enhancement technique corresponds to Wiener filtering; and the fidelity enhancement block, when performing the fidelity enhancement technique on the processed data of the video frame, Wiener filters a smaller quad-tree partition of the video frame to generate auto-correlation and cross-correlation matrices for the smaller quad-tree partition which is one of the four quad-tree partitions into which a larger quad-tree partition of the video frame is quad-tree partitioned, and reuses the generated auto-correlation and cross-correlation matrices for Wiener filtering the larger quad-tree partition including the smaller quad-tree partition in order to determine a quad-tree partition structure of the video frame causing the lowest cost when Wiener filtering the video frame; wherein the fidelity enhancement parameters comprises at least one parameter associated with the determined quad-tree partition structure of the video frame, wherein the fidelity enhancement block is in a reconstruction loop.
A method for cranking an internal combustion engine, the engine coupled to a permanent magnet machine comprising a rotor having a plurality of permanent magnets poles, and a stator having a plurality of phase windings disposed on the stator, each phase winding including a plurality of coils, the method comprising the steps of: (a) receiving a start signal; (b) determining an initial position of the rotor with respect to a stator phase winding; (c) applying a pulse-width-modulated PWM signal to the stator winding corresponding to determined initial position of the rotor; characterised by (d) determining a threshold value of the stator current variation; (e) measuring current of the stator winding in response to applied pulse-width-modulated signal to determine current variation; (f) if current variation is more than the threshold value: determining updated rotor position, applying a pulse-width-modulated signal to the stator winding corresponding to the updated rotor position; and repeating steps (d) - (f); and (g) if current variation is less than the threshold value: applying a pulse-width-modulated signal to the stator winding corresponding to the last updated rotor position and repeating steps (d) - (g). (a) receiving a start signal; (b) determining an initial position of the rotor with respect to a stator phase winding; (c) applying a pulse-width-modulated PWM signal to the stator winding corresponding to determined initial position of the rotor; characterised by (d) determining a threshold value of the stator current variation; (e) measuring current of the stator winding in response to applied pulse-width-modulated signal to determine current variation; (f) if current variation is more than the threshold value: determining updated rotor position, applying a pulse-width-modulated signal to the stator winding corresponding to the updated rotor position; and repeating steps (d) - (f); and (g) if current variation is less than the threshold value: applying a pulse-width-modulated signal to the stator winding corresponding to the last updated rotor position and repeating steps (d) - (g).
A composition for separating a protein from a detergent, said composition comprising a) cellulose in which at least some of the free hydroxyl groups have been functionalised with alkyl, hydroxyalkyl or carboxyalkyl groups; b) a cyclic oligomer selected from a cyclic oligosaccharide, calixarene, curcurbituril, pillararene, or derivatives thereof; and c) an α-hydroxycarboxylic acid having a pKa of 4 or less, wherein said composition does not comprise a protein-complexing dye. a) cellulose in which at least some of the free hydroxyl groups have been functionalised with alkyl, hydroxyalkyl or carboxyalkyl groups; b) a cyclic oligomer selected from a cyclic oligosaccharide, calixarene, curcurbituril, pillararene, or derivatives thereof; and c) an α-hydroxycarboxylic acid having a pKa of 4 or less, wherein said composition does not comprise a protein-complexing dye.
Flanged joint for at least two components (1, 2) which have mutually facing contact surfaces (3, 4), wherein the one component is fastenable to the other component with at least one fastening element, wherein at least one projection is arranged between the components (1, 2) in the edge region thereof, wherein at least one of the contact surfaces (3, 4) is curved convexly in relation to the other contact surface (4, 3), and the contact surfaces (3, 4) are arranged parallel to each other in a connecting region under surface pressure, wherein the at least one projection has a supporting surface which is pivoted by an angle in relation to the contact surfaces (3, 4) of the components (1, 2) in the unconnected state thereof characterized in that extensive contacting of the contact surfaces (3, 4) is realized in the connecting region of the contact surfaces (3, 4) of the connected components (1, 2).