mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: identifying a first frequency range of a system bandwidth used for transmission of a synchronization information; identifying, by applying a first function of the first frequency range of the system bandwidth, a second frequency range of the system bandwidth used for transmission of common control information, and the first frequency range and the second frequency range each being less than the system bandwidth; receiving the common control information within the identified second frequency range of the system bandwidth; and descrambling a reference signal transmitted in the second frequency range and used to decode the common control information according to a scrambling scheme, the scrambling scheme being a second function of the first frequency range of the system bandwidth. identifying a first frequency range of a system bandwidth used for transmission of a synchronization information; identifying, by applying a first function of the first frequency range of the system bandwidth, a second frequency range of the system bandwidth used for transmission of common control information, and the first frequency range and the second frequency range each being less than the system bandwidth; receiving the common control information within the identified second frequency range of the system bandwidth; and descrambling a reference signal transmitted in the second frequency range and used to decode the common control information according to a scrambling scheme, the scrambling scheme being a second function of the first frequency range of the system bandwidth.
A header assembly comprising: an outer housing having a mating end and a harness end, the outer housing having a cavity at the mating end, the outer housing having a flange configured to be mounted to a panel of a device, the cavity being configured to be exposed to an exterior of the device for mating with a plug assembly; characterized by: a shield received in the cavity, the shield having a front and a rear; and an inner housing received in the cavity with the shield surrounding at least a portion of the inner housing, the inner housing having a front and a rear, the inner housing having latches engaging the front of the shield, the latches allowing the inner housing to be released from the shield to remove the inner housing from the cavity. an outer housing having a mating end and a harness end, the outer housing having a cavity at the mating end, the outer housing having a flange configured to be mounted to a panel of a device, the cavity being configured to be exposed to an exterior of the device for mating with a plug assembly; characterized by: a shield received in the cavity, the shield having a front and a rear; and an inner housing received in the cavity with the shield surrounding at least a portion of the inner housing, the inner housing having a front and a rear, the inner housing having latches engaging the front of the shield, the latches allowing the inner housing to be released from the shield to remove the inner housing from the cavity.
A method of acidizing in a well, comprising: placing an ester of a hydroxy acid and water in the well, thereby allowing the ester to undergo hydrolysis, wherein the ester of the hydroxy acid comprises propyl lactate, butyl lactate, trilactin, or combinations thereof.
Method for injection of a reducing agent into an exhaust pipe at a combustion engine, wherein the reducing agent is sprayed in the form of a spray through at least one nozzle toward several evaporation plates arranged inside an exhaust pipe section, and which are oriented substantially along a main flow direction for the exhaust pipe section, and each of which has an upstream end section, a downstream end section, a first side and a second side,wherein the reducing agent is sprayed directly toward the evaporation plates' respective first sides, constituting the evaporation side between said upstream end section and said downstream end section, which end sections are kept free of spraying, characterised in that seen transversely to the main flow direction, the reducing agent is sprayed toward the evaporation sides, while acute angles (γ 1,γ 2,γ 3) are formed between the spraying directions of the reducing agent and the evaporation sides, at least in surface sections connected to the respective edges running between said upstream end sections and said downstream end sections (5"), which edges are near said nozzle or nozzles.
A developing device (20, 120) for use with a two-component developer, comprising: a developer roller (21, 121) to rotate in a rotation direction, the developer roller (21, 121) extending longitudinally and having longitudinal ends, the developer roller (21, 121) having an image forming region located between the longitudinal ends, and a non-image forming region located at at least one of the longitudinal ends; a photosensitive body adjacent the developer roller (21, 121), wherein a closest position is defined where the developer roller (21, 121) and the photosensitive body are closest to one another; and an air flow passage extending from an inlet located inside the developing device (20, 120) to an outlet located outside the developing device to discharge the air out of the developing device (20, 120), the air flow passage to form an air flow directed toward an upstream side, relative to the rotation direction of the developer roller (21, 121), of the closest position between the developer roller (21, 121) and the photosensitive body, characterised by the air flow passage extending through the non-image forming region of the developer roller (21, 121). a developer roller (21, 121) to rotate in a rotation direction, the developer roller (21, 121) extending longitudinally and having longitudinal ends, the developer roller (21, 121) having an image forming region located between the longitudinal ends, and a non-image forming region located at at least one of the longitudinal ends; a photosensitive body adjacent the developer roller (21, 121), wherein a closest position is defined where the developer roller (21, 121) and the photosensitive body are closest to one another; and an air flow passage extending from an inlet located inside the developing device (20, 120) to an outlet located outside the developing device to discharge the air out of the developing device (20, 120), the air flow passage to form an air flow directed toward an upstream side, relative to the rotation direction of the developer roller (21, 121), of the closest position between the developer roller (21, 121) and the photosensitive body, characterised by the air flow passage extending through the non-image forming region of the developer roller (21, 121).
A process for bonding a metal skin, without using a splice plate, to a composite skin, the composite skin comprising a first composite laminate and a second composite laminate, each composite laminate comprising a respective fiber comprising graphite; the process comprising: bonding the first composite laminate to a first end of a stack, the stack comprising metal sheets, and bonding the second composite laminate to a second end of the stack; forming the stack to a shape; connecting the first composite laminate to a top side of a frame of a structure; and connecting the second composite laminate to a bottom side of the frame of the structure; wherein each metal sheet has a thickness of about 0.635 mm (0.025 inches) forming a waveguide for one-sided non-destructive testing. bonding the first composite laminate to a first end of a stack, the stack comprising metal sheets, and bonding the second composite laminate to a second end of the stack; forming the stack to a shape; connecting the first composite laminate to a top side of a frame of a structure; and connecting the second composite laminate to a bottom side of the frame of the structure; wherein each metal sheet has a thickness of about 0.635 mm (0.025 inches) forming a waveguide for one-sided non-destructive testing.
A system for performing an electrosurgical procedure at a surgical site, the system comprising: a sensor configured to continually sense at least one of an electrical and physical property of tissue at a surgical site and to generate a sensor signal as a function thereof; and a control module configured to process the sensor signal using a processor, an algorithm, and a map having at least one predetermined value, the control module further configured to compare the sensor signal to a predetermined level to determine reliability of the sensor signal and to send a control signal to an electrosurgical generator in response to a reliable sensor signal such that the electrosurgical generator enters energy control mode, wherein the electrosurgical generator matches an output of the control signal with a predetermined value from the map and characterized in that: the control module is further configured to prevent unreliable initial data from entering the algorithm by comparing (92, 96) the initial reading with a predetermined threshold and disregarding the reading when the reading has an impedance value that is above or below the respective threshold. a sensor configured to continually sense at least one of an electrical and physical property of tissue at a surgical site and to generate a sensor signal as a function thereof; and a control module configured to process the sensor signal using a processor, an algorithm, and a map having at least one predetermined value, the control module further configured to compare the sensor signal to a predetermined level to determine reliability of the sensor signal and to send a control signal to an electrosurgical generator in response to a reliable sensor signal such that the electrosurgical generator enters energy control mode, wherein the electrosurgical generator matches an output of the control signal with a predetermined value from the map and characterized in that: the control module is further configured to prevent unreliable initial data from entering the algorithm by comparing (92, 96) the initial reading with a predetermined threshold and disregarding the reading when the reading has an impedance value that is above or below the respective threshold. the control module is further configured to prevent unreliable initial data from entering the algorithm by comparing (92, 96) the initial reading with a predetermined threshold and disregarding the reading when the reading has an impedance value that is above or below the respective threshold.
An assembly formed of a plasma cutting torch head connected to a plasma torch body by means of a securing ring, said plasma cutting torch head comprising an upstream end and a downstream end, and the fixing ring being movable in rotation and in translation at least at the upstream end of said torch head, said ring comprising a thread formed on its inner wall and being used to connect said torch head to the torch body, characterised in that the turns of said thread have a trapezoidal section, said torch body comprising a thread of trapezoidal section complementary to the thread of said torch head, and characterised by a radial play relative to the axis of the torch, which play facilitates the insertion of fluid and electrical connections, on the furthest downstream portion of the torch head, into corresponding recesses situated on the further upstream portion of the torch body.
A method for producing a polycarbonate, comprising continuously feeding dihydroxy compounds containing a specific dihydroxy compound having a moiety represented by the following formula in a part of the structure, a carbonic acid diester and a polymerization catalyst to a reactor and performing polycondensation to produce a polycarbonate, wherein as the reactor, a plurality of reactors are connected at least in series, the internal temperature of a penultimate reactor prior to a final polymerization reactor is from 200°C to less than 220°C, and the melt viscosity of a reaction solution (measured by a capillary rheometer, using the method as described in the present specification) at the outlet of the penultimate reactor prior to the final polymerization reactor is from 100 to 1,000 Pa·s: [with the proviso excluding the case where the moiety represented by formula is a moiety constituting a part of -CH 2 -OH] wherein the final polymerization reactor is a horizontal stirring reactor having inside thereof a plurality of horizontal rotating shafts and the reaction conditions satisfy the following formula: 500 ≤ ωμ ≤ 20,000 [ω: the rotation speed (rpm) of a stirring blade, and μ: the melt viscosity (Pa·s) of a reaction solution at the outlet of the horizontal reactor].
A method for use by an operating system configured to separately load foreground components and background components of an application and executing on at least one computer, the method comprising acts of: detecting, at an operating system broker component, an occurrence of at least one trigger associated with a brokered event, wherein the brokered event is an event in response to which at least one background component of the application is to be executed; in response to detecting the occurrence of the at least one trigger, determining, at the operating system broker component, whether at least one operating condition specified by the application or by the operating system is satisfied; characterized in that the method further comprises: signaling, by the operating system broker component, the brokered event only when it is determined that the at least one operating condition is satisfied; and executing the at least one background component of the application only in response to the brokered event signaled by the operating system broker component, wherein the at least one background component is associated with the at least one operating condition by the operating system. detecting, at an operating system broker component, an occurrence of at least one trigger associated with a brokered event, wherein the brokered event is an event in response to which at least one background component of the application is to be executed; in response to detecting the occurrence of the at least one trigger, determining, at the operating system broker component, whether at least one operating condition specified by the application or by the operating system is satisfied; characterized in that the method further comprises: signaling, by the operating system broker component, the brokered event only when it is determined that the at least one operating condition is satisfied; and executing the at least one background component of the application only in response to the brokered event signaled by the operating system broker component, wherein the at least one background component is associated with the at least one operating condition by the operating system. signaling, by the operating system broker component, the brokered event only when it is determined that the at least one operating condition is satisfied; and executing the at least one background component of the application only in response to the brokered event signaled by the operating system broker component, wherein the at least one background component is associated with the at least one operating condition by the operating system.
A method of wireless communication, comprising: detecting, by a user equipment, UE, a reference signal from a serving base station in the first symbols of a first subframe of a transmission frame of the serving base station, over a carrier of shared spectrum, wherein the shared spectrum is at least one of an unlicensed spectrum or a spectrum allowing sharing among a plurality of operators; measuring, by the UE, the reference signal; generating, by the UE, a channel state information, CSI, feedback report based on the measured reference signal; and transmitting, by the UE, the CSI feedback report to the serving base station in an uplink subframe immediately following the first subframe. detecting, by a user equipment, UE, a reference signal from a serving base station in the first symbols of a first subframe of a transmission frame of the serving base station, over a carrier of shared spectrum, wherein the shared spectrum is at least one of an unlicensed spectrum or a spectrum allowing sharing among a plurality of operators; measuring, by the UE, the reference signal; generating, by the UE, a channel state information, CSI, feedback report based on the measured reference signal; and transmitting, by the UE, the CSI feedback report to the serving base station in an uplink subframe immediately following the first subframe.
Method for metallizing a nonconducting substrate comprising at least the method steps: contacting the substrate with a metal containing activator solution; contacting the substrate contacted with the activator solution with a metal salt solution comprising at least one metal which is adapted to be reduced by a metal of the activator solution, a complexing agent and at least one metal of the group consisting of lithium, potassium, rubidium or cesium; and subsequently electroless or galvanically coating the treated substrate with a metal; characterized in that for adjusting an alkaline pH-value between pH 10 and pH 14 corresponding hydroxides or other alkalization agents and/or buffer substances are added to the metal salt solution and the metal salt solution comprises the metal of the group consisting of lithium, potassium, rubidium or cesium in the form of a salt of the group consisting of fluorides, chlorides, iodides, bromides, nitrates, sulfates or mixtures thereof. contacting the substrate with a metal containing activator solution; contacting the substrate contacted with the activator solution with a metal salt solution comprising at least one metal which is adapted to be reduced by a metal of the activator solution, a complexing agent and at least one metal of the group consisting of lithium, potassium, rubidium or cesium; and
A positive active material for a lithium secondary battery comprising a) lithium manganese spinel oxide of core particles described by the following Formula 1; and b) an overlayer of a lithium nickel metal oxide described by the following Formula 2, coating on the above-mentioned core particles of a); [Formula 1] Li 1+x Mn 2-x-y M y O 4+d wherein, M is selected from the group consisting of Ti, V, Cr, Co, Ni, Mg, Zr, Fe, Gd, and Ga, x is a real number of 0 ∼ 0.12; y is a real number of 0 ∼ 0.5; and d is a real number of 0 ∼ 0.04; [Formula 2] LiNi 1-z Me z O 2 wherein, Me is selected from the group consisting of Ni, Mn, Co, V, Ti, Zr, Cr, Al, Mg, Fe, Cu, Zn, Ga, and Gd; and z is a real number of 0 ∼ 0.7. a) lithium manganese spinel oxide of core particles described by the following Formula 1; and b) an overlayer of a lithium nickel metal oxide described by the following Formula 2, coating on the above-mentioned core particles of a); M is selected from the group consisting of Ti, V, Cr, Co, Ni, Mg, Zr, Fe, Gd, and Ga, x is a real number of 0 ∼ 0.12; y is a real number of 0 ∼ 0.5; and d is a real number of 0 ∼ 0.04; Me is selected from the group consisting of Ni, Mn, Co, V, Ti, Zr, Cr, Al, Mg, Fe, Cu, Zn, Ga, and Gd; and z is a real number of 0 ∼ 0.7.
A network management system for managing communications in a cellular communication network comprising: an access point configured to facilitate communication from a wireless subscriber communication unit to the cellular communication network, the access point comprising access point configuration logic arranged to configure the access point with access point configuration information, wherein the access point is a femto-cell wireless access point device; an access controller configured to control access to the cellular communication network, wherein the access controller is operably coupled to the access point, wherein the access controller comprises access controller configuration logic arranged to configure the access controller with access controller configuration information; wherein the network management system is characterised in that the access point configuration logic is arranged to receive access controller configuration information and configure the access point using at least a portion of the access controller configuration information; and forward the received access controller configuration information to the access controller. an access point configured to facilitate communication from a wireless subscriber communication unit to the cellular communication network, the access point comprising access point configuration logic arranged to configure the access point with access point configuration information, wherein the access point is a femto-cell wireless access point device; an access controller configured to control access to the cellular communication network, wherein the access controller is operably coupled to the access point, wherein the access controller comprises access controller configuration logic arranged to configure the access controller with access controller configuration information;
A base station comprising: circuitry adapted to select one pattern to be used for data allocation from among a plurality of patterns of a resource area where data is allocated; and a transmitter adapted to provide notification about setting information regarding the plurality of patterns by higher-layer signaling and provide notification about the selected one pattern by a downlink control signal, DCI, characterized in that the selected one pattern indicates a frequency domain or time domain of the resource area to be excluded from data allocation. circuitry adapted to select one pattern to be used for data allocation from among a plurality of patterns of a resource area where data is allocated; and a transmitter adapted to provide notification about setting information regarding the plurality of patterns by higher-layer signaling and provide notification about the selected one pattern by a downlink control signal, DCI, characterized in that the selected one pattern indicates a frequency domain or time domain of the resource area to be excluded from data allocation.
Steel substrate coated on at least one of its faces with a metallic coating based on zinc or its alloys wherein the metallic coating is itself coated with a conversion layer comprising: - zinc sulphate hydrate, - aluminium in an amount up to 14 mg.m -2, wherein the conversion layer comprises neither zinc hydroxysulphate, nor free water molecules nor any compounds having free hydroxyl groups, the surface density of sulphur in the conversion layer being greater than or equal to 5.0 mg/m 2. - zinc sulphate hydrate, - aluminium in an amount up to 14 mg.m -2,