mhurhangee/ep-ind-claims huggingface dataset:
A method for radio reception with multiple antennas in a given frequency band, using N antennas, where N is an integer greater than or equal to 2, the method comprising the steps of: tuning n antennas among the N antennas, where n is an integer greater than or equal to 2 and less than or equal to N, using an antenna tuning apparatus comprising n antenna ports, m user ports, where m is an integer greater than or equal to 2, and p adjustable impedance devices, where p is an integer greater than or equal to 2m, each of the p adjustable impedance devices having a terminal coupled to either one of the antenna ports or one of the user ports, each of the adjustable impedance devices having a reactance at a frequency in said given frequency band, the reactance of any one of the adjustable impedance devices being adjustable by electrical means, each of the user ports delivering a signal; processing m digital signals, each of the digital signals being mainly determined by one and only one of the signals delivered by the user ports, to estimate one or more quantities representative of a channel matrix between a plurality of signals sent by a transmitter and the m signals delivered by the user ports, and to deliver a tuning instruction as a function of said one or more quantities representative of a channel matrix; using the tuning instruction to obtain a plurality of tuning control signals, the reactance of each of the adjustable impedance devices being mainly determined by one or more of the tuning control signals. tuning n antennas among the N antennas, where n is an integer greater than or equal to 2 and less than or equal to N, using an antenna tuning apparatus comprising n antenna ports, m user ports, where m is an integer greater than or equal to 2, and p adjustable impedance devices, where p is an integer greater than or equal to 2m, each of the p adjustable impedance devices having a terminal coupled to either one of the antenna ports or one of the user ports, each of the adjustable impedance devices having a reactance at a frequency in said given frequency band, the reactance of any one of the adjustable impedance devices being adjustable by electrical means, each of the user ports delivering a signal; processing m digital signals, each of the digital signals being mainly determined by one and only one of the signals delivered by the user ports, to estimate one or more quantities representative of a channel matrix between a plurality of signals sent by a transmitter and the m signals delivered by the user ports, and to deliver a tuning instruction as a function of said one or more quantities representative of a channel matrix; using the tuning instruction to obtain a plurality of tuning control signals, the reactance of each of the adjustable impedance devices being mainly determined by one or more of the tuning control signals.
A system for network metadata based policy control, the system comprising: a policy store for storing at least one network metadata policy manipulation rule for changing a value of an operator assigned policy control parameter for subscribers; and a network metadata directed policy server for obtaining network information for a plurality of subscribers, for deriving network metadata from the network information, for accessing the policy store and applying one of the network metadata based policy manipulation rules for changing a value of an operator assigned policy control parameter for the subscribers, and for generating an instruction for changing the value of the network operator assigned policy control parameter for the subscribers; wherein the network information identifies geographic locations of the subscribers and wherein the network metadata comprises a number of a service provider's operators that are present in a single retailer location or across plural retailer locations. a policy store for storing at least one network metadata policy manipulation rule for changing a value of an operator assigned policy control parameter for subscribers; and a network metadata directed policy server for obtaining network information for a plurality of subscribers, for deriving network metadata from the network information, for accessing the policy store and applying one of the network metadata based policy manipulation rules for changing a value of an operator assigned policy control parameter for the subscribers, and for generating an instruction for changing the value of the network operator assigned policy control parameter for the subscribers;
Flow test machine (2, 202), comprising a test piston (4, 204), a test channel (38, 238), at least one test weight (72, 272), and a drive unit (92, 292), such as a hydraulic or a pneumatic actuator (94, 96, 296), characterized in that in a drive state, the test weight (72, 272) and the drive unit (92, 292) are in a force-coupling connection, wherein the test weight (72, 272) can be raised and lowered by the drive unit (92, 292), wherein a weight force (79, 279) of the test weight (72, 272) can be applied to the test piston (4, 204) and the test piston (4, 204) can be moved through the test channel (38, 238) with the aid of the weight force (79, 279), wherein, between at least one first position (151, 156, 158, 160, 351, 351', 356, 358, 360) of the test piston (4, 204), a starting drive position (151, 351, 351'), and at least one second position (152, 160, 164, 352, 352', 360, 364) of the test piston (4, 204), an actuation end position (152, 352, 352'), an additional actuating force, which can be exerted via a force-transmitting connection between the drive unit (92, 292) and the test piston (4, 204), is applied by means of the drive unit (92, 292) in addition to the weight force (79, 279), in order to move (172, 372) the test piston (4, 204) in an accelerated manner, compared to an effect of the weight force (79, 279), in a first direction of a force, the weight force (79, 279), over at least one stretch (166, 167, 168, 366, 367, 368) along the test channel (38, 238). comprising a test piston (4, 204), a test channel (38, 238), at least one test weight (72, 272), and a drive unit (92, 292), such as a hydraulic or a pneumatic actuator (94, 96, 296), characterized in that in a drive state, the test weight (72, 272) and the drive unit (92, 292) are in a force-coupling connection, wherein the test weight (72, 272) can be raised and lowered by the drive unit (92, 292), wherein a weight force (79, 279) of the test weight (72, 272) can be applied to the test piston (4, 204) and the test piston (4, 204) can be moved through the test channel (38, 238) with the aid of the weight force (79, 279), wherein, between at least one first position (151, 156, 158, 160, 351, 351', 356, 358, 360) of the test piston (4, 204), a starting drive position (151, 351, 351'), and at least one second position (152, 160, 164, 352, 352', 360, 364) of the test piston (4, 204), an actuation end position (152, 352, 352'), an additional actuating force, which can be exerted via a force-transmitting connection between the drive unit (92, 292) and the test piston (4, 204), is applied by means of the drive unit (92, 292) in addition to the weight force (79, 279), in order to move (172, 372) the test piston (4, 204) in an accelerated manner, compared to an effect of the weight force (79, 279), in a first direction of a force, the weight force (79, 279), over at least one stretch (166, 167, 168, 366, 367, 368) along the test channel (38, 238).
A method for expanding tumor infiltrating lymphocytes (TILs) into a therapeutic population of TILs comprising: (i) performing a first expansion by culturing a first population of TILs from at least one fine needle aspirate or at least one small biopsy from a tumor in a patient in a cell culture medium comprising IL-2 to produce a second population of TILs, wherein the cell culture medium is supplemented with OKT-3 at any one of days 1-3, wherein the first expansion is performed for 3 days to 12 days in order to obtain the second population of TILs, wherein the second population of TILs comprises at least 5 × 10 7 TILs by 3 days to 12 days when the first population of TILs is from a small biopsy; and (ii) performing a second expansion by supplementing the cell culture medium of the second population of TILs with additional IL-2, OKT-3, and antigen presenting cells (APCs), to produce a third population of TILs, wherein the third population of TILs is at least 25-fold greater in number than the second population of TILs, and wherein the second expansion is performed for 3 days to 12 days in order to obtain the third population of TILs, wherein the third population of TILs is a therapeutic population of TILs. (i) performing a first expansion by culturing a first population of TILs from at least one fine needle aspirate or at least one small biopsy from a tumor in a patient in a cell culture medium comprising IL-2 to produce a second population of TILs, wherein the cell culture medium is supplemented with OKT-3 at any one of days 1-3, wherein the first expansion is performed for 3 days to 12 days in order to obtain the second population of TILs, wherein the second population of TILs comprises at least 5 × 10 7 TILs by 3 days to 12 days when the first population of TILs is from a small biopsy; and the cell culture medium is supplemented with OKT-3 at any one of days 1-3, wherein the first expansion is performed for 3 days to 12 days in order to obtain the second population of TILs, wherein the second population of TILs comprises at least 5 × 10 7 TILs by 3 days to 12 days when the first population of TILs is from a small biopsy; and (ii) performing a second expansion by supplementing the cell culture medium of the second population of TILs with additional IL-2, OKT-3, and antigen presenting cells (APCs), to produce a third population of TILs, wherein the third population of TILs is at least 25-fold greater in number than the second population of TILs, and wherein the second expansion is performed for 3 days to 12 days in order to obtain the third population of TILs, wherein the third population of TILs is a therapeutic population of TILs.
A child stroller apparatus comprising: a first frame portion provided with a first wheel assembly, the first frame portion including a seat mount configured to detachably engage with any of a stroller seat and an infant car seat; a second frame portion including a stand platform and a second wheel assembly, the second frame portion being assembled with the first frame portion for sliding movement along a lengthwise axis extending from a front to a rear of the child stroller apparatus; and a control mechanism (210, 210') operable to adjust a position of the second frame portion relative to the first frame portion; wherein the seat mount is movable between a stowed configuration and a deployed configuration, characterized in that the seat mount in the stowed configuration is positionable at an underside of the stand platform. a first frame portion provided with a first wheel assembly, the first frame portion including a seat mount configured to detachably engage with any of a stroller seat and an infant car seat; a second frame portion including a stand platform and a second wheel assembly, the second frame portion being assembled with the first frame portion for sliding movement along a lengthwise axis extending from a front to a rear of the child stroller apparatus; and a control mechanism (210, 210') operable to adjust a position of the second frame portion relative to the first frame portion; wherein the seat mount is movable between a stowed configuration and a deployed configuration, characterized in that the seat mount in the stowed configuration is positionable at an underside of the stand platform.
An articulate support assembly for a robotic surgical system, the assembly comprising: a mounting base: an orienting platform rotatably coupled to the mounting base to allow the orienting platform to rotate relative to the mounting base; a plurality of configurable set-up joint arms (40,42,44), each of the arms (40,42,44) coupled to the orienting platform through a rotatable hub (82,84,86,88), the plurality of set-up joint arms (40,42,44) each supporting a patient side or camera manipulator (32,34), at least one of the plurality of arms (40,42,44) comprising: at least one parallelogram linkage structure comprising a pair of adjacent fixable rotational joints that are pre-configurable. a mounting base: an orienting platform rotatably coupled to the mounting base to allow the orienting platform to rotate relative to the mounting base; a plurality of configurable set-up joint arms (40,42,44), each of the arms (40,42,44) coupled to the orienting platform through a rotatable hub (82,84,86,88), the plurality of set-up joint arms (40,42,44) each supporting a patient side or camera manipulator (32,34), at least one of the plurality of arms (40,42,44) comprising: an orienting platform rotatably coupled to the mounting base to allow the orienting platform to rotate relative to the mounting base; a plurality of configurable set-up joint arms (40,42,44), each of the arms (40,42,44) coupled to the orienting platform through a rotatable hub (82,84,86,88), the plurality of set-up joint arms (40,42,44) each supporting a patient side or camera manipulator (32,34), at least one of the plurality of arms (40,42,44) comprising: at least one parallelogram linkage structure comprising a pair of adjacent fixable rotational joints that are pre-configurable.
A lifting tool for mounting and dismounting of a sash of a roof window in an inclined roof construction, said lifting tool comprising: two support stands adapted to be placed on the roof at opposite sides of a mounted window frame of the roof window, each support stand comprising a support base, a support leg, and an angle bar which together forms a triangle with a connection point at each corner; a cross bar which can be releasably attached between the support stands; and a winch which can by mounted on the cross bar; wherein two of the connection points between the support base, the support leg, and the angle bar of each support stand are pivotable and the third connection point is releasable, when the lifting tool is not in use, so that the lifting tool can be folded together, characterized in that at least one of the connection points between the support base, the support leg, and the angle bar of each support stand is displaceable along the length of one of said support base, support leg, and angle bar so that the support stand can be adjusted to the inclination of the roof, and in that the lifting tool further comprises a mounting strap which can be spanned between the support bases, wherein a length of the mounting strap is adjustable, and/or wherein the support stands each comprise a batten hook. two support stands adapted to be placed on the roof at opposite sides of a mounted window frame of the roof window, each support stand comprising a support base, a support leg, and an angle bar which together forms a triangle with a connection point at each corner; a cross bar which can be releasably attached between the support stands; and a winch which can by mounted on the cross bar; wherein two of the connection points between the support base, the support leg, and the angle bar of each support stand are pivotable and the third connection point is releasable, when the lifting tool is not in use, so that the lifting tool can be folded together, characterized in that at least one of the connection points between the support base, the support leg, and the angle bar of each support stand is displaceable along the length of one of said support base, support leg, and angle bar so that the support stand can be adjusted to the inclination of the roof, and in that the lifting tool further comprises a mounting strap which can be spanned between the support bases, wherein a length of the mounting strap is adjustable, and/or wherein the support stands each comprise a batten hook.
A mixing and dosing unit, comprising: - an exhaust conduit defining a central axis; - a mixing conduit positioned within the exhaust conduit, the mixing conduit having a sidewall and extending along the central axis from an upstream end to a downstream end; - a dispersing arrangement for dispersing reactants disposed at the upstream end of the mixing conduit; and - a bypass for allowing exhaust to bypass the upstream end of the mixing conduit and to enter the mixing conduit downstream of the dispersing arrangement; wherein said sidewall defines a first flow entry region at which exhaust can flow from the bypass into the interior of the mixing conduit; wherein a second flow entry region is provided at said sidewall at a location spaced downstream of said first flow entry region; said first flow entry region and said second flow entry region comprising louvers; wherein said louvers of said first flow entry region face in a different direction than said louvers of said second flow entry region. - an exhaust conduit defining a central axis; - a mixing conduit positioned within the exhaust conduit, the mixing conduit having a sidewall and extending along the central axis from an upstream end to a downstream end; - a dispersing arrangement for dispersing reactants disposed at the upstream end of the mixing conduit; and - a bypass for allowing exhaust to bypass the upstream end of the mixing conduit and to enter the mixing conduit downstream of the dispersing arrangement;
A light emitting device comprising: a light emitting structure comprising a first semiconductor layer, a second semiconductor layer, and an active layer interposed between the first and second semiconductor layers (162, 164); an insulating layer contacting the light emitting structure from below; and a protective layer disposed below the light emitting structure, and formed with a pattern at which the insulating layer is arranged, wherein the protective layer includes at least two protrusions (d), among which the pattern is formed, characterized in that at least one of the at least two protrusions (d) penetrates into the first semiconductor layer. a light emitting structure comprising a first semiconductor layer, a second semiconductor layer, and an active layer interposed between the first and second semiconductor layers (162, 164); an insulating layer contacting the light emitting structure from below; and a protective layer disposed below the light emitting structure, and formed with a pattern at which the insulating layer is arranged, wherein the protective layer includes at least two protrusions (d), among which the pattern is formed, characterized in that at least one of the at least two protrusions (d) penetrates into the first semiconductor layer.
System for adjusting at least the vertical setting between a first transport device and a second transport device in a transport section for preforms for plastic containers, the first transport device having at least one outlet unit for accepting preforms from the second transport device and a rail unit for further transport of the preforms, the outlet unit firstly being connected to the rail unit and secondly being arranged such that it can be moved freely with respect to the second transport device, and the first and the second transport devices (10, 20) being connected to one another via an adjusting unit, it being possible for the height of at least the outlet unit to be adjusted with respect to the second transport device by means of the adjusting unit.
A method for selecting a channel bandwidth, comprising: acquiring, by a first access point, AP, in a first basic service set, BSS, a priority of a second BSS and a channel bandwidth of the second BSS, wherein a coverage area of the second BSS overlaps with a coverage area of the first BSS; if a priority of the first BSS is higher than or equal to the priority of the second BSS, determining, by the first AP, a channel bandwidth that is greater than or equal to the channel bandwidth of the second BSS as a channel bandwidth of the first BSS, and if the priority of the first BSS is lower than the priority of the second BSS, determining, by the first AP, a channel bandwidth that is less than the channel bandwidth of the second BSS as the channel bandwidth of the first BSS. acquiring, by a first access point, AP, in a first basic service set, BSS, a priority of a second BSS and a channel bandwidth of the second BSS, wherein a coverage area of the second BSS overlaps with a coverage area of the first BSS; if a priority of the first BSS is higher than or equal to the priority of the second BSS, determining, by the first AP, a channel bandwidth that is greater than or equal to the channel bandwidth of the second BSS as a channel bandwidth of the first BSS, and if the priority of the first BSS is lower than the priority of the second BSS, determining, by the first AP, a channel bandwidth that is less than the channel bandwidth of the second BSS as the channel bandwidth of the first BSS.
A voltage controlled oscillator, VCO, comprising: a resonant tank circuit (L1, L2, C), wherein the resonant tank circuit comprises an inductor-capacitor, LC, tank circuit; an active negative transconductance circuit (M1, M2, Z) connected with the resonant tank circuit, comprising: cross-coupled transistors having drains connected with the resonant tank circuit, wherein the cross-coupled transistors comprise n-channel metal oxide semiconductor, NMOS, field effect transistors (M1, M2), and wherein a body of each of the cross-coupled transistors is connected with a reference voltage; and an impedance connected between sources of the cross-coupled NMOS transistors and the reference voltage; and a bias current circuit for sourcing or sinking a bias current through the resonant tank circuit and the active negative transconductance circuit to generate an oscillating signal, characterized in that the bias current circuit comprises a current mirror; and the VCO further comprises a switch configured to programmably shunt the impedance. a resonant tank circuit (L1, L2, C), wherein the resonant tank circuit comprises an inductor-capacitor, LC, tank circuit; an active negative transconductance circuit (M1, M2, Z) connected with the resonant tank circuit, comprising: cross-coupled transistors having drains connected with the resonant tank circuit, wherein the cross-coupled transistors comprise n-channel metal oxide semiconductor, NMOS, field effect transistors (M1, M2), and wherein a body of each of the cross-coupled transistors is connected with a reference voltage; and an impedance connected between sources of the cross-coupled NMOS transistors and the reference voltage; and cross-coupled transistors having drains connected with the resonant tank circuit, wherein the cross-coupled transistors comprise n-channel metal oxide semiconductor, NMOS, field effect transistors (M1, M2), and wherein a body of each of the cross-coupled transistors is connected with a reference voltage; and an impedance connected between sources of the cross-coupled NMOS transistors and the reference voltage; and a bias current circuit for sourcing or sinking a bias current through the resonant tank circuit and the active negative transconductance circuit to generate an oscillating signal, characterized in that the bias current circuit comprises a current mirror; and the VCO further comprises a switch configured to programmably shunt the impedance.