mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a frame in a wireless LAN system performed by a wireless device, the method comprising: for a transmission of a first frame related to an access category, AC, comparing a first time parameter related to an admitted time previously admitted by an access point, AP, for the wireless device for said AC, with a second time parameter related to a used time previously used by the wireless device for transmitting frames of said AC; based on a first comparison result between the first time parameter and the second time parameter, determining whether or not to transmit the first frame to the AP through an Enhanced Distributed Channel Access, EDCA; updating the second time parameter by adding a first required time used for transmitting the first frame to the second time parameter; receiving a trigger frame for a multi-user uplink, MU UL, transmission from the AP; based on the trigger frame, performing data processing for a second frame; and transmitting the second frame regardless of a second comparison result between the first time parameter and the updated second time parameter, wherein a second required time used for transmitting the second frame is not added to the updated second time parameter, and wherein the updated second time parameter is maintained after the transmission of the second frame. for a transmission of a first frame related to an access category, AC, comparing a first time parameter related to an admitted time previously admitted by an access point, AP, for the wireless device for said AC, with a second time parameter related to a used time previously used by the wireless device for transmitting frames of said AC; based on a first comparison result between the first time parameter and the second time parameter, determining whether or not to transmit the first frame to the AP through an Enhanced Distributed Channel Access, EDCA; updating the second time parameter by adding a first required time used for transmitting the first frame to the second time parameter; receiving a trigger frame for a multi-user uplink, MU UL, transmission from the AP; based on the trigger frame, performing data processing for a second frame; and transmitting the second frame regardless of a second comparison result between the first time parameter and the updated second time parameter, wherein a second required time used for transmitting the second frame is not added to the updated second time parameter, and wherein the updated second time parameter is maintained after the transmission of the second frame.
Ground anchor for an anchor arrangement in the ground, with an elongate pull element, to which an anchor body is fixedly connectable on a ground-side anchoring portion, characterized in that a connecting material is applied at least on the ground-side anchoring portion for anchoring with the anchor body, which material, at ambient temperature, fixedly connects the pull element to the anchor body, and the connection to the anchor body is releasable at a predetermined release temperature which is different from the ambient temperature.
Multilayer body arrangement for the prevention of glass substrate deformation, comprising: - a multilayer body having a glass substrate, a functional coating, which is applied on one side of the glass substrate, an auxiliary layer, which is areally connected to the side of the glass substrate facing away from the functional coating, wherein the functional coating includes precursor layers for conversion into a semiconductor layer of a thin-film solar cell, - two emitter arrays with a process level lying therebetween, in which the multilayer body is disposed, with a radiated power P tot in the wavelength range from 250 nm to 4000 nm incident on the glass substrate for heat-treating the functional coating, wherein the auxiliary layer has an absorbed radiated power P 20 from 10% to 60% of the incident radiated power P tot. - a multilayer body having a glass substrate, a functional coating, which is applied on one side of the glass substrate, an auxiliary layer, which is areally connected to the side of the glass substrate facing away from the functional coating, wherein the functional coating includes precursor layers for conversion into a semiconductor layer of a thin-film solar cell, - two emitter arrays with a process level lying therebetween, in which the multilayer body is disposed, with a radiated power P tot in the wavelength range from 250 nm to 4000 nm incident on the glass substrate for heat-treating the functional coating,
A method for the production of a polysaccharide film, characterized in that the finished spinning solution for the extrusion contains an amine oxide, at least 23% by weight of water, related to the total quantity of the spinning solution, and, as a polysaccharide, α(1→3)-glucan.
A detection device comprising a plurality of photoelectric converters to output an electrical signal corresponding to an incident light; and a plurality of high pass filter circuits provided corresponding to each of the plurality of photoelectric converters or to each of a plurality of element groups respectively including a predetermined number of the photoelectric converters of the plurality of photoelectric converters, the plurality of high pass filter circuits to attenuate a signal having a predetermined frequency from the electrical signal that is output from the plurality of photoelectric converters; wherein the plurality of photoelectric converters are provided in a first substrate and the plurality of high pass filter circuits are provided in a second substrate laminated on the first substrate; and each of the plurality of high pass filter circuits has (i) a resistance component having a field effect transistor that is adapted to operate in a saturated region and (ii) a capacitor (144, 244). a plurality of high pass filter circuits provided corresponding to each of the plurality of photoelectric converters or to each of a plurality of element groups respectively including a predetermined number of the photoelectric converters of the plurality of photoelectric converters, the plurality of high pass filter circuits to attenuate a signal having a predetermined frequency from the electrical signal that is output from the plurality of photoelectric converters; wherein the plurality of photoelectric converters are provided in a first substrate and the plurality of high pass filter circuits are provided in a second substrate laminated on the first substrate; and each of the plurality of high pass filter circuits has (i) a resistance component having a field effect transistor that is adapted to operate in a saturated region and (ii) a capacitor (144, 244).
An apparatus comprising: a wireless transceiver; a network interface configured to couple the wireless transceiver to a wired connection point of an associated network; and control logic coupled to the wireless transceiver and the network interface and operable to control the operation of the wireless transceiver and the network interface; wherein the control logic is configured to wirelessly obtain current location data via the wireless transceiver; wherein the network interface is configured to determine an identifier for the wired connection point of the associated network; and wherein the location control logic is configured to associate the current location data and the identifier of the wired connection point and to send the current location data and the identifier for the wired connection point via the network interface to a node disposed on the associated network. a wireless transceiver; a network interface configured to couple the wireless transceiver to a wired connection point of an associated network; and control logic coupled to the wireless transceiver and the network interface and operable to control the operation of the wireless transceiver and the network interface; wherein the control logic is configured to wirelessly obtain current location data via the wireless transceiver; wherein the network interface is configured to determine an identifier for the wired connection point of the associated network; and wherein the location control logic is configured to associate the current location data and the identifier of the wired connection point and to send the current location data and the identifier for the wired connection point via the network interface to a node disposed on the associated network.
A method, comprising: determining changes in energy or power in data measured by each of a plurality of meters; determining changes in energy or power in data measured for each of a plurality of electrical phases (118A, 118B, 118C) of a feeder; selecting a meter from among the plurality of meters; comparing the determined changes in the energy or power data of the selected meter to the determined changes in the energy or power data of each of the plurality of electrical phases of the feeder; and determining a phase from among the plurality of electrical phases that is connected to the meter based at least in part on the comparisons. determining changes in energy or power in data measured by each of a plurality of meters; determining changes in energy or power in data measured for each of a plurality of electrical phases (118A, 118B, 118C) of a feeder; selecting a meter from among the plurality of meters; comparing the determined changes in the energy or power data of the selected meter to the determined changes in the energy or power data of each of the plurality of electrical phases of the feeder; and determining a phase from among the plurality of electrical phases that is connected to the meter based at least in part on the comparisons.
A method of manufacturing an article selected from the group consisting of wood boards, fiberboards, wood particle boards, chip boards, oriented strand board, medium density fiberboards and high pressure laminates comprising cellulosic fibers bound by a polymeric binder comprising the steps: - applying a solution or dispersion of a binder composition to the cellulosic fibers, and - applying heat to the cellulosic fibers containing said solution or dispersion to cure the binder composition to form the article, characterized in that the binder composition comprises a polymeric product of at least one reducing sugar and at least one amine component, wherein the at least one amine component comprises a substituted or unsubstituted primary triamine, and wherein at least two of the primary amino groups of the primary triamine are separated by a spacer group having a length of 4 to 12 atoms. - applying a solution or dispersion of a binder composition to the cellulosic fibers, and - applying heat to the cellulosic fibers containing said solution or dispersion to cure the binder composition to form the article,
Cornice or shelf attachment device onto two support planes forming an angle between each other equal to less than 135°, said device including: - first and second supports intended to be fixed to first (P') and second (P") support planes, said first and second supports being defined in the same plane as a frame and fixed to it: - at least two arms mounted free to pivot about said frame, at least one elastic means extending between each of said at least two arms and the frame or between said at least two arms; - at least two support points; each of said at least two arms carrying at least one support point; said at least one elastic means and said at least two support points defining at least two positions: - a first position in which said elastic means is in an attachment state and each of said at least two support points is constrained by resultants originating from one of said two support planes, said resultants being approximately equal and opposite; said at least two support points being separated by a distance; - a second position in which said at least one elastic means is in a state of compression or extension; said at least two support points being separated by a distance, said distance being less than said distance; said device also comprises a third support forming an edge that will be positioned in contact with the intersection edge between the planes (P') and (P"), said third support extending perpendicular to the frame and being arranged at the intersection between the first and second supports (40, 41); characterised in that to go to the first position when being put into place by a user, the elastic means constrains the two support points such that they move away from each other to come into contact with the support plans (P', P") before being anchored in the walls. - first and second supports intended to be fixed to first (P') and second (P") support planes, said first and second supports being defined in the same plane as a frame and fixed to it: - at least two arms mounted free to pivot about said frame, at least one elastic means extending between each of said at least two arms and the frame or between said at least two arms; - at least two support points; each of said at least two arms carrying at least one support point; - a first position in which said elastic means is in an attachment state and each of said at least two support points is constrained by resultants originating from one of said two support planes, said resultants being approximately equal and opposite; said at least two support points being separated by a distance; - a second position in which said at least one elastic means is in a state of compression or extension;
A polyolefin composition comprising the following components, all percent amounts being by weight: A) 15-40% of a copolymer of propylene with hexene-1 containing from 2.5 to 10% of hexene-1 and having Melt Flow Rate (MFR, measured according to ISO 1133, 230°C/2.16 Kg) from 0.5 to 100 g/10 min.; and B) 60-85% of a copolymer of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and optionally minor quantities of a diene, or a copolymer of ethylene with propylene and said α-olefin, and optionally minor quantities of a diene, said copolymers containing ethylene in a quantity equal to or lower than 40%, and having solubility in xylene at room temperature greater than 70%. A) 15-40% of a copolymer of propylene with hexene-1 containing from 2.5 to 10% of hexene-1 and having Melt Flow Rate (MFR, measured according to ISO 1133, 230°C/2.16 Kg) from 0.5 to 100 g/10 min.; and B) 60-85% of a copolymer of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and optionally minor quantities of a diene, or a copolymer of ethylene with propylene and said α-olefin, and optionally minor quantities of a diene, said copolymers containing ethylene in a quantity equal to or lower than 40%, and having solubility in xylene at room temperature greater than 70%.
A bacteriophage phi29 DNA polymerase comprising a mutation M8R, wherein the bacteriophage phi29 DNA polymerase has increased protein stability compared to wild-type phi29 DNA polymerase, and optionally wherein the bacteriophage phi29 DNA polymerase further comprises at least one mutation selected from V51A, M97T, L123S, G197D, K209E, E221K, E239G, Q497P, K512E, E515A, and F526L.
An aircraft comprising an aircraft galley, the aircraft galley (10, 90) having a configuration extending along a longitudinal axis of a fuselage of the aircraft and on one side of the aircraft, the galley comprising: a forward end of the galley closest to a front of the aircraft and a rear end of the galley (10, 90) on an opposite longitudinal end of the galley and closest to a passenger section of the aircraft; and a plurality of galley modules (20, 22, 24, 26) disposed in the galley (10, 90) between the forward and rear ends (12, 14) of the galley, wherein the galley modules (20, 22, 24, 26) comprise: a storage module comprising a refrigerator (30, 32); a heating module; and a preparation module comprising a sink having a spigot and a faucet, wherein the storage module is disposed at the forward end of the galley (10, 90), the preparation module is disposed closer to the rear end of the galley (10, 90) than the storage module, and the heating module is disposed between the storage module and the preparation module, and whereby a work flow in the direction of the passenger section is created by the galley configuration (10, 90). a forward end of the galley closest to a front of the aircraft and a rear end of the galley (10, 90) on an opposite longitudinal end of the galley and closest to a passenger section of the aircraft; and a plurality of galley modules (20, 22, 24, 26) disposed in the galley (10, 90) between the forward and rear ends (12, 14) of the galley, wherein the galley modules (20, 22, 24, 26) comprise: a storage module comprising a refrigerator (30, 32); a heating module; and a preparation module comprising a sink having a spigot and a faucet, a storage module comprising a refrigerator (30, 32); a heating module; and a preparation module comprising a sink having a spigot and a faucet, wherein the storage module is disposed at the forward end of the galley (10, 90), the preparation module is disposed closer to the rear end of the galley (10, 90) than the storage module, and the heating module is disposed between the storage module and the preparation module, and whereby a work flow in the direction of the passenger section is created by the galley configuration (10, 90).
A method for determining the component of a magnetic field in a predetermined direction, comprising the steps of: preparing a quantum system in a coherent superposition state, wherein the coherent superposition state is the same in each iteration and/or the coherent superposition state corresponds to an unbalanced superposition of at least three states with respective amplitudes and/or the coherent superposition state corresponds to the maximum modulus spin-projection in a direction perpendicular to the predetermined direction; letting the quantum system evolve for a delay time period, wherein the quantum system interacts with the magnetic field in the predetermined direction, wherein the interaction with the quantum system changes the relative phases of the coherent superposition state of the quantum system and an accumulated phase depends on the component of the magnetic field in the predetermined direction, performing a readout operation and a projective measurement on the quantum system, wherein the projective measurement corresponds to a measurement of the spin polarization of the quantum system in the predetermined direction, and iteratively repeating steps, and in an iteration loop, determining the component of the magnetic field in the predetermined direction according to the outcomes of the projective measurements, wherein the steps of the method are carried out by a control and measurement unit; and characterized in that the delay time period increases linearly by the same time increment after each iteration. preparing a quantum system in a coherent superposition state, wherein the coherent superposition state is the same in each iteration and/or the coherent superposition state corresponds to an unbalanced superposition of at least three states with respective amplitudes and/or the coherent superposition state corresponds to the maximum modulus spin-projection in a direction perpendicular to the predetermined direction; letting the quantum system evolve for a delay time period, wherein the quantum system interacts with the magnetic field in the predetermined direction, wherein the interaction with the quantum system changes the relative phases of the coherent superposition state of the quantum system and an accumulated phase depends on the component of the magnetic field in the predetermined direction, performing a readout operation and a projective measurement on the quantum system, wherein the projective measurement corresponds to a measurement of the spin polarization of the quantum system in the predetermined direction, and iteratively repeating steps, and in an iteration loop, determining the component of the magnetic field in the predetermined direction according to the outcomes of the projective measurements, wherein the steps of the method are carried out by a control and measurement unit; and characterized in that the delay time period increases linearly by the same time increment after each iteration.
An industrial controller unit adapted to be coupled to a plurality of programming units (26a, 26b, 26c) via a network, the industrial controller unit comprising: a controller storage element adapted to store a plurality of characteristics associated with a plurality of source code objects of a source code pertaining to an industrial control program; wherein each source code object has at least one characteristic and wherein the at least one characteristic comprises data pertaining to a location of the source code object on at least one of the plurality of programming units (26a, 26b, 26c); and a distribution element adapted to receive an inquiry for a source code object from a first programming unit among the plurality of programming units (26a, 26b, 26c), to retrieve from the controller storage element data pertaining to a corresponding location of the source code object on a second programming unit among the plurality of programming units (26a, 26b, 26c), the second programming unit being different from the first programming unit, and to cause the source code object to be transferred from the second programming unit to the first programming unit; wherein the distribution element is adapted to receive, from the first programming unit, a characteristic of a first source code object stored locally on the first programming unit, and to compare a first characteristic of the first source code object to a corresponding characteristic of the source code object, and is adapted to cause the source code object to be transferred from the second programming unit to the first programming unit only if the comparison reveals a difference. a controller storage element adapted to store a plurality of characteristics associated with a plurality of source code objects of a source code pertaining to an industrial control program; wherein each source code object has at least one characteristic and wherein the at least one characteristic comprises data pertaining to a location of the source code object on at least one of the plurality of programming units (26a, 26b, 26c); and a distribution element adapted to receive an inquiry for a source code object from a first programming unit among the plurality of programming units (26a, 26b, 26c), to retrieve from the controller storage element data pertaining to a corresponding location of the source code object on a second programming unit among the plurality of programming units (26a, 26b, 26c), the second programming unit being different from the first programming unit, and to cause the source code object to be transferred from the second programming unit to the first programming unit; wherein the distribution element is adapted to receive, from the first programming unit, a characteristic of a first source code object stored locally on the first programming unit, and to compare a first characteristic of the first source code object to a corresponding characteristic of the source code object, and is adapted to cause the source code object to be transferred from the second programming unit to the first programming unit only if the comparison reveals a difference.
An ultrasonic transducer comprising an ultrasonic horn and a magnetostrictive driver, wherein the driver is joined to a contact face of the ultrasonic horn proximal thereto, wherein the driver and the ultrasonic horn are joined in a zone of the contact face by electron-beam welding and/or laser-beam welding, wherein the contact face is formed by the bottom of at least one receiving pocket, which accommodates the end of the driver proximal to the ultrasonic horn, wherein the at least one receiving pocket is formed in a pedestal-like elevation of an end of the ultrasonic horn proximal to the driver, and wherein the height of the pedestal-like elevation is greater than the depth of the at least one receiving pocket formed therein.