mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: selecting a plurality of patch elements from an array antenna of a network element; determining an accuracy confidence value for each patch element; generating a set of coefficients of the array antenna; generating an ensemble of non-linear forward models using the accuracy confidence value and the set of coefficients; generating an array of pre-distortion signals using the ensemble of non-linear forward models; and configuring each antenna of the array antenna with a corresponding pre-distortion signal from the array of pre-distortion signals, wherein the determining the accuracy confidence value is based on build data of each antenna of the array antenna, and/or comprises implementing a Bayesian formula. selecting a plurality of patch elements from an array antenna of a network element; determining an accuracy confidence value for each patch element; generating a set of coefficients of the array antenna; generating an ensemble of non-linear forward models using the accuracy confidence value and the set of coefficients; generating an array of pre-distortion signals using the ensemble of non-linear forward models; and configuring each antenna of the array antenna with a corresponding pre-distortion signal from the array of pre-distortion signals, wherein the determining the accuracy confidence value is based on build data of each antenna of the array antenna, and/or comprises implementing a Bayesian formula.
A liftable charging apparatus with water level detection said liftable charging apparatus comprising: a control module; a power module, coupled to said control module, comprising: a AC/DC converting unit, for converting AC current into DC current, the DC current being usable as charging current in a charging process; a detective module, coupled to said control module, comprising: a water level detection unit, for detecting a height of an outside water level; a micro-switch; an overvoltage protection module, coupled to said power module and coupled to said detective module through said control module; and a lifting module, coupled to said control module, for lifting said liftable charging apparatus; wherein said liftable charging apparatus is adapted such that, in case said detective module detects said height of said outside water level being greater than a default value, said overvoltage protection module is triggered by said micro-switch thereby interrupting operation of said AC/DC converting unit, and said lifting module being driven, to lift said liftable charging apparatus. a control module; a power module, coupled to said control module, comprising: a AC/DC converting unit, for converting AC current into DC current, the DC current being usable as charging current in a charging process; a detective module, coupled to said control module, comprising: a water level detection unit, for detecting a height of an outside water level; a micro-switch; a water level detection unit, for detecting a height of an outside water level; a micro-switch; an overvoltage protection module, coupled to said power module and coupled to said detective module through said control module; and a lifting module, coupled to said control module, for lifting said liftable charging apparatus; wherein said liftable charging apparatus is adapted such that, in case said detective module detects said height of said outside water level being greater than a default value, said overvoltage protection module is triggered by said micro-switch thereby interrupting operation of said AC/DC converting unit, and said lifting module being driven, to lift said liftable charging apparatus.
Vertical-lift, drop-gate or rolling-gate lock gate intended to withstand a pressure exerted by a liquid, the gate comprising plating that is planar overall, a plurality of thin webs extending along the plating and substantially mutually parallel, each web being secured to the plating, each web having, on the opposite side to the plating, an edge (B 2) that is curved in a plane (X-Y) transverse to the plating, each web widening towards its middle and narrowing towards its ends, each web being pierced with several liquid-passage cavities that are disjointed and configured so that they together delimit a first band extending along the plating and operating in tension when the liquid exerts the pressure on the plating on the web side, a second band extending along the curved edge (B 2) and working in compression when the liquid exerts the pressure on the plating on the web side, and bridges connecting the first and second bands and extending between two adjacent cavities, and the gate comprising at least one stiffener extending through the cavities belonging respectively to several webs.
A Bulbine frutescens gel, obtainable by the steps of: washing the leaves of Bulbine frutescens with water, and optionally chopping the leaves; squeezing the leaves for obtaining a gel-like sap; treating the gel-like sap with hydrogen peroxide while stirring, wherein 0.5 to 20 g of hydrogen peroxide are added per each kg of sap; destroying the hydrogen peroxide by adding a pharmaceutically or cosmetically acceptable acid while stirring, until the peroxide value is below 0.02 meqO/kg; adjusting the pH to a value of 3.0 to 4.0 while adding a pharmaceutically or cosmetically acceptable acid, and obtaining the gel while stirring once all components are dissolved. washing the leaves of Bulbine frutescens with water, and optionally chopping the leaves; squeezing the leaves for obtaining a gel-like sap; treating the gel-like sap with hydrogen peroxide while stirring, wherein 0.5 to 20 g of hydrogen peroxide are added per each kg of sap; destroying the hydrogen peroxide by adding a pharmaceutically or cosmetically acceptable acid while stirring, until the peroxide value is below 0.02 meqO/kg; adjusting the pH to a value of 3.0 to 4.0 while adding a pharmaceutically or cosmetically acceptable acid, and obtaining the gel while stirring once all components are dissolved.
A mounting bracket for an electronic housing for mounting in the side portion of a trunk of a motor vehicle between a side flank of the body structure of the motor vehicle and a side trim covering the same, said bracket comprising: - a plate having an outer receiving face for the housing, - fastening means for securing said housing to said plate, and - securing means (23, 24) for securing said support to said side flank; the support also comprises a plurality of retaining arms (30, 31, 32, 33) extending transversely projecting from the outer face of the plate and having curved free ends (30B, 31B, 32B, 33B) adapted to rest against the inner face of the lateral trim when the plate is installed on the vehicle, said support being characterized in that said securing means comprise a first tab extending at a first end of said plate and having a circular fastening orifice, and a second tab extending at a second end of said plate and having an oblong fastening notch. - a plate having an outer receiving face for the housing, - fastening means for securing said housing to said plate, and - securing means (23, 24) for securing said support to said side flank;
A thin film transistor device comprising: a first gate electrode disposed on a substrate; a first gate insulating film for covering the first gate electrode; a semiconductor layer disposed on the first gate insulating film; a second gate insulating film for covering the semiconductor layer; and a second gate electrode disposed on the second gate insulating film, wherein the semiconductor layer includes an N-type semiconductor layer and a P-type semiconductor layer, characterized in that the N-type semiconductor layer and the P-type semiconductor layer are formed vertically integrated as one single layer, wherein an overlapping area between the N-type semiconductor layer and the first gate electrode define a first channel area having N-type semiconductor properties and an overlapping area between the P-type semiconductor layer and the second gate electrode define a second channel area having P-type semiconductor properties. a first gate electrode disposed on a substrate; a first gate insulating film for covering the first gate electrode; a semiconductor layer disposed on the first gate insulating film; a second gate insulating film for covering the semiconductor layer; and a second gate electrode disposed on the second gate insulating film, wherein the semiconductor layer includes an N-type semiconductor layer and a P-type semiconductor layer, characterized in that the N-type semiconductor layer and the P-type semiconductor layer are formed vertically integrated as one single layer, wherein an overlapping area between the N-type semiconductor layer and the first gate electrode define a first channel area having N-type semiconductor properties and an overlapping area between the P-type semiconductor layer and the second gate electrode define a second channel area having P-type semiconductor properties.
A piling hammer comprising: a linear electric machine comprising a mover connected to a ram block for striking a pile; characterized in that the piling hammer comprises a processor operatively connected to the linear electric machine and configured to: determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine. a linear electric machine comprising a mover connected to a ram block for striking a pile; characterized in that the piling hammer comprises a processor operatively connected to the linear electric machine and configured to: determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine. determine a total target kinetic energy for striking a pile using a ram block connected to a mover of a linear electric machine of the piling hammer; determine a first portion of the total target kinetic energy for striking the pile at least based on a mass of the ram block; determine a second portion of the total target kinetic energy for striking the pile based on the total target kinetic energy and the first portion of the total target kinetic energy; control the linear electric machine to accelerate the mover based on the determined second portion of the kinetic energy for striking the pile by the linear electric machine.
A fiber reinforced polypropylene resin composition comprising a propylene-ethylene block copolymer at 40% by weight to 99% by weight and a fiber at 1% by weight to 60% by weight, both of which are defined hereinbelow (provided that the total amount of and is 100% by weight), wherein the propylene-ethylene block copolymer satisfies the following requirements (I-i) to (I-iv): (I-i): the propylene-ethylene block copolymer is obtained by sequentially polymerizing, using a metallocene catalyst, 30% by weight to 95% by weight of propylene alone or propylene-ethylene random copolymer component (I-A) having an ethylene content of 7% by weight or less in a first step and 70% by weight to 5% by weight of propylene-ethylene random copolymer component (I-B) having an ethylene content that is 3% by weight to 20% by weight higher than that of the component (I-A) in a second step; (I-ii): the propylene-ethylene block copolymer has a melting peak temperature (Tm), as measured by DSC, of 110°C to 150°C; (I-iii): the propylene-ethylene block copolymer shows a single peak on a tan δ curve at or below 0°C in a temperature-loss tangent curve obtained by a solid viscoelasticity measurement; and (I-iv): the propylene-ethylene block copolymer has a melt flow rate (MFR: 230°C, 2.16 kg load) of 0.5 g/10 min to 200 g/10 min, and wherein the fiber satisfies the following requirement (II-i): (II-i): the fiber is at least one selected from the group consisting of a glass fiber, a carbon fiber, a whisker and an organic fiber having a melting point of 245°C or more. (I-i): the propylene-ethylene block copolymer is obtained by sequentially polymerizing, using a metallocene catalyst, 30% by weight to 95% by weight of propylene alone or propylene-ethylene random copolymer component (I-A) having an ethylene content of 7% by weight or less in a first step and 70% by weight to 5% by weight of propylene-ethylene random copolymer component (I-B) having an ethylene content that is 3% by weight to 20% by weight higher than that of the component (I-A) in a second step; (I-ii): the propylene-ethylene block copolymer has a melting peak temperature (Tm), as measured by DSC, of 110°C to 150°C; (I-iii): the propylene-ethylene block copolymer shows a single peak on a tan δ curve at or below 0°C in a temperature-loss tangent curve obtained by a solid viscoelasticity measurement; and (I-iv): the propylene-ethylene block copolymer has a melt flow rate (MFR: 230°C, 2.16 kg load) of 0.5 g/10 min to 200 g/10 min, and wherein (II-i): the fiber is at least one selected from the group consisting of a glass fiber, a carbon fiber, a whisker and an organic fiber having a melting point of 245°C or more.
A method for at least deriving a cryptographic key (K enc, K int) in a terminal, the cryptographic key being applicable by the terminal for at least one of encrypting at least a part of data included in an application message for an application server transmitted over a telecommunications network and authenticating at least the part of data included in the application message, the terminal and the telecommunications network both having access to a first key (K 1), and the terminal and the server both having access to a second key (K 2), the method comprising the step of: the terminal deriving the cryptographic key using the first key and the second key.
A detection system for measuring one or more conditions within a predetermined area comprising: a fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining a plurality of nodes arranged to measure the one or more conditions; and a control system operably coupled to the fiber harness such that scattered light associated with the plurality of nodes is transmitted to the control system, the control system is operable to parse a signal indicative of the scattered light associated with the plurality of nodes into a plurality of signals, each of the plurality of signals being associated with a respective node of the plurality of nodes, wherein the control system analyzes the plurality of signals individually and collectively to determine at least one of a presence and magnitude of the one or more conditions within the predetermined area, characterized in that the analyzing the plurality of signals collectively is operable to detect a condition that is insufficient to initiate an alarm at any of the nodes by the individually analyzing the plurality of signals. a fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining a plurality of nodes arranged to measure the one or more conditions; and a control system operably coupled to the fiber harness such that scattered light associated with the plurality of nodes is transmitted to the control system, the control system is operable to parse a signal indicative of the scattered light associated with the plurality of nodes into a plurality of signals, each of the plurality of signals being associated with a respective node of the plurality of nodes, wherein the control system analyzes the plurality of signals individually and collectively to determine at least one of a presence and magnitude of the one or more conditions within the predetermined area, characterized in that the analyzing the plurality of signals collectively is operable to detect a condition that is insufficient to initiate an alarm at any of the nodes by the individually analyzing the plurality of signals.
A pharmaceutical composition for use in the treatment of psoriasis vulgaris, the pharmaceutical composition comprising at least one decoy and a pharmaceutically acceptable carrier, wherein the at least one decoy is an NF-κB decoy.
An E. coli B BL21 strain characterised by having at least 25% of group II capsular gene cluster permanently inactivated by deletion, and comprising an expression vector with an inserted DNA sequence encoding a peptide.
A soda lime silicate glass composition using colemanite comprising essentially of 60.82-69.45 wt% silica, 4.26-13.14 wt% B 2 O 3, 13.00-13.70 wt% Na 2 O, 8.59-10.30 wt% CaO along with other minor components in the indicated proportion of 0.15-1.30 wt% Al 2 O 3, 0.03-0.30 wt% K 2 O, 0.46-4.04 wt% MgO, 0.13-0.41 wt% SrO and 0.01-0.02 wt% TiO 2 with trace amount of impurities comprising of not more than 0.04 wt% Fe.
An instrument control device comprising: a variable mechanism including a motor (15, 16, 17) configured to adjust a state of an instrument; and a variable controller configured to drive the motor (15,16,17) at a rotational speed corresponding to a command signal, the variable controller comprising: a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller; characterized in that the motor controller is configured to increase the command signal stepwise at predetermined time intervals starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button. a variable mechanism including a motor (15, 16, 17) configured to adjust a state of an instrument; and a variable controller configured to drive the motor (15,16,17) at a rotational speed corresponding to a command signal, the variable controller comprising: a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller; characterized in that the motor controller is configured to increase the command signal stepwise at predetermined time intervals starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button. a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller; characterized in that the motor controller is configured to increase the command signal stepwise at predetermined time intervals starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button.
A device for fracturing a geological hydrocarbon reservoir wherein the device comprises: - two packers (102, 103) defining a confined space therebetween in a well drilled in the reservoir; - an apparatus to regulate the temperature of a fluid in the confined space; - a pair of two electrodes arranged in the confined space; and - an electric circuit to generate an electric arc between the two electrodes, the circuit comprising at least one voltage source (112, 118) connected to the electrodes the device being characterized in that it further includes an inductor coil between the voltage source (112, 118) and one of the two electrodes. - two packers (102, 103) defining a confined space therebetween in a well drilled in the reservoir; - an apparatus to regulate the temperature of a fluid in the confined space; - a pair of two electrodes arranged in the confined space; and - an electric circuit to generate an electric arc between the two electrodes, the circuit comprising at least one voltage source (112, 118) connected to the electrodes the device being characterized in that it further includes an inductor coil between the voltage source (112, 118) and one of the two electrodes.
A communication device operational in a communication system including a first node and a second node, the communication device comprising: circuitry configured to cause communication with the first node and the second node based on carrier aggregation, the communication including: setting a downlink component carrier associated with the first node as a downlink primary component carrier, and setting an uplink component carrier associated with the second node as an uplink primary component carrier for transmitting Physical Uplink Control Channel, PUCCH, wherein the communication includes transmitting, using the circuitry, an uplink control signaling via the uplink primary component carrier associated with the second node, wherein the communication includes receiving from the second node, by the circuitry, designation information regarding the uplink primary component carrier via one of Radio Resource Control, RRC, signaling, Media Access Control, MAC, signaling, or physical layer signaling; and wherein the first node is a macro base station and the second node is a low power node, LPN. circuitry configured to cause communication with the first node and the second node based on carrier aggregation, the communication including: setting a downlink component carrier associated with the first node as a downlink primary component carrier, and setting an uplink component carrier associated with the second node as an uplink primary component carrier for transmitting Physical Uplink Control Channel, PUCCH, setting a downlink component carrier associated with the first node as a downlink primary component carrier, and setting an uplink component carrier associated with the second node as an uplink primary component carrier for transmitting Physical Uplink Control Channel, PUCCH, wherein the communication includes transmitting, using the circuitry, an uplink control signaling via the uplink primary component carrier associated with the second node, wherein the communication includes receiving from the second node, by the circuitry, designation information regarding the uplink primary component carrier via one of Radio Resource Control, RRC, signaling, Media Access Control, MAC, signaling, or physical layer signaling; and wherein the first node is a macro base station and the second node is a low power node, LPN.