mhurhangee/ep-ind-claims huggingface dataset:
An exhaust treatment system comprising: a conduit for transmitting an exhaust gas having NOx from an engine to the atmosphere; an injector for injecting nitrogenous reductant into said exhaust gas; a selective catalytic reduction catalyst situated to contact said exhaust gas and reduce said NOx using said nitrogenous reductant to form a NOx-reduced gas stream, which, at least intermittently, contains slip nitrogenous reductant; an HC injector for injecting HC into said NOx-reduced gas stream to form an HC-enriched gas stream, wherein the HC injector is controlled by a controller which is configured to periodically cause a certain amount of HC to be injected into the stream; a combined catalyst situated to contact said HC-enriched gas stream to form a heated gas stream, said combined catalyst comprising a first layer on a substrate having an oxidization catalyst to oxidize said slip nitrogenous reductant and said HC to heat said heated gas stream, the oxidation catalyst having a PGM concentration above 10 g/ft 3 (0.353 g/L), and a second layer adjacent to said first layer and having an SCR catalyst to reduce NOx in said heated gas stream; and a filter disposed to contact said heated gas stream to regenerate soot contained in said filter. a conduit for transmitting an exhaust gas having NOx from an engine to the atmosphere; an injector for injecting nitrogenous reductant into said exhaust gas; a selective catalytic reduction catalyst situated to contact said exhaust gas and reduce said NOx using said nitrogenous reductant to form a NOx-reduced gas stream, which, at least intermittently, contains slip nitrogenous reductant; an HC injector for injecting HC into said NOx-reduced gas stream to form an HC-enriched gas stream, wherein the HC injector is controlled by a controller which is configured to periodically cause a certain amount of HC to be injected into the stream; a combined catalyst situated to contact said HC-enriched gas stream to form a heated gas stream, said combined catalyst comprising a first layer on a substrate having an oxidization catalyst to oxidize said slip nitrogenous reductant and said HC to heat said heated gas stream, the oxidation catalyst having a PGM concentration above 10 g/ft 3 (0.353 g/L), and a second layer adjacent to said first layer and having an SCR catalyst to reduce NOx in said heated gas stream; and a filter disposed to contact said heated gas stream to regenerate soot contained in said filter.
A composition comprising HPRT deficient lymphocytes for use in a method of preventing or mitigating post-transplant immune deficiency, the method comprising: (a) generating HPRT deficient lymphocytes from a donor sample, wherein the HPRT deficient lymphocytes are generated through knockout of the HPRT gene; (b) positively selecting for the generated HPRT deficient lymphocytes ex vivo to provide a population of modified lymphocytes; and (c) administering the population of modified lymphocytes to the patient contemporaneously with or after an administration of an allogenic HSC graft. (a) generating HPRT deficient lymphocytes from a donor sample, wherein the HPRT deficient lymphocytes are generated through knockout of the HPRT gene; (b) positively selecting for the generated HPRT deficient lymphocytes ex vivo to provide a population of modified lymphocytes; and (c) administering the population of modified lymphocytes to the patient contemporaneously with or after an administration of an allogenic HSC graft.
A polarizing plate comprising: a polarizer; a protective layer directly formed on one surface of the polarizer; and an adhesive layer and a protective film consecutively provided on a surface of the polarizer on which the protective layer is not formed, wherein the adhesive layer is a resin layer comprising an active energy ray-curable composition comprising a first epoxy compound comprising one or more alicyclic epoxy rings, and, with respect to 100 parts by weight of the first epoxy compound, a second epoxy compound comprising one or more glycidyl ether groups in 110 parts by weight to 500 parts by weight and an oxetane compound in 5 parts by weight to 85 parts by weight, or a cured material thereof; wherein the polarizing plate satisfies the following General Formula 1. P ≥ 3.5 N / cm in General Formula 1, P means peel strength measured while peeling the protective film from the adhesive layer at 25°C at a peeling angle of 90° and a peeling rate of 300 mm/min; and wherein the adhesive layer has a glass transition temperature of 90°C or higher measured according to the method detailed in the description. a polarizer; a protective layer directly formed on one surface of the polarizer; and an adhesive layer and a protective film consecutively provided on a surface of the polarizer on which the protective layer is not formed, wherein the adhesive layer is a resin layer comprising an active energy ray-curable composition comprising a first epoxy compound comprising one or more alicyclic epoxy rings, and, with respect to 100 parts by weight of the first epoxy compound, a second epoxy compound comprising one or more glycidyl ether groups in 110 parts by weight to 500 parts by weight and an oxetane compound in 5 parts by weight to 85 parts by weight, or a cured material thereof; wherein the polarizing plate satisfies the following General Formula 1. P ≥ 3.5 N / cm in General Formula 1, P means peel strength measured while peeling the protective film from the adhesive layer at 25°C at a peeling angle of 90° and a peeling rate of 300 mm/min; and wherein the adhesive layer has a glass transition temperature of 90°C or higher measured according to the method detailed in the description.
A receiver for a data link, the receiver comprising: a data path receiving an input signal from the data link, the data path comprising: an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop (122, 123, 142) adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; a phase interpolator adapted to receive the recovered clock signal and to generate a phase-interpolated clock signal; and the decision feedback equalization, DFE, circuitry comprising a second sampler circuit adapted to receive the sum signal, wherein the second sampler circuit is triggered by the recovered clock signal in a first operating mode which performs decision feedback equalization adaptation and by the phase-interpolated clock signal in a second operating mode so as to generate eye-diagram data. a data path receiving an input signal from the data link, the data path comprising: an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop (122, 123, 142) adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop (122, 123, 142) adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; a phase interpolator adapted to receive the recovered clock signal and to generate a phase-interpolated clock signal; and the decision feedback equalization, DFE, circuitry comprising a second sampler circuit adapted to receive the sum signal, wherein the second sampler circuit is triggered by the recovered clock signal in a first operating mode which performs decision feedback equalization adaptation and by the phase-interpolated clock signal in a second operating mode so as to generate eye-diagram data.
A companion remote control system to be used with a smart device for controlling a plurality of controlled components, the system comprising: a companion remote control unit configured for remote communication, the companion remote control unit providing a predetermined set of labelled buttons for a user desiring to interact with a controlled component, wherein activation of each of the labelled buttons results in a unique identifiable signal comprising a user command to be transmitted; a software application configured for running on the smart device, the software application providing a graphical interface for the user to select a desired controlled component from the plurality of controlled components; and a control processor capable of communicating with the companion remote, the smart device and a plurality of controlled components, the control processor programmed to receive instructions from the smart device indicating the selected controlled component and to receive the user command from the companion remote, the control processor being further programed to correlate the user command received from the companion remote to appropriate instructions for the selected controlled component as selected by the user through the software application on the smart device, with the control processor thus instructing the selected controlled component based on the user command received from the companion remote, thereby allowing the user to interact with the selected controlled component using the companion remote as if the companion remote was dedicated to the selected controlled component. a companion remote control unit configured for remote communication, the companion remote control unit providing a predetermined set of labelled buttons for a user desiring to interact with a controlled component, wherein activation of each of the labelled buttons results in a unique identifiable signal comprising a user command to be transmitted; a software application configured for running on the smart device, the software application providing a graphical interface for the user to select a desired controlled component from the plurality of controlled components; and a control processor capable of communicating with the companion remote, the smart device and a plurality of controlled components, the control processor programmed to receive instructions from the smart device indicating the selected controlled component and to receive the user command from the companion remote, the control processor being further programed to correlate the user command received from the companion remote to appropriate instructions for the selected controlled component as selected by the user through the software application on the smart device, with the control processor thus instructing the selected controlled component based on the user command received from the companion remote, thereby allowing the user to interact with the selected controlled component using the companion remote as if the companion remote was dedicated to the selected controlled component.
A coupling assembly for coupling a rod to a bone anchoring element, the coupling assembly including a receiving part (5, 5', 5") with a top end and an opposite bottom end; a channel for receiving the rod and an accommodation space (55, 56) for accommodating a head of the bone anchoring element, the accommodation space being substantially cylindrical with a narrowing portion near an opening at the bottom end for inserting the head, and being in communication with the top end of the receiving part through a passage (51; 120) and with the bottom end through the opening; and a pressure element (7, 7', 7") located at least partially in the accommodation space, the pressure element having a cap portion configured to encompass the head; wherein the pressure element is a monolithic piece, and wherein the pressure element (7, 7', 7") can assume in the receiving part an inserting position in which inserting of the head into the receiving part is permitted, a locking position in which the head can be locked in the receiving part and a pre-locking position in which the head is pivotable in the receiving part and wherein the pressure element is arranged such that the cap portion narrows the opening at the bottom end to prevent removal of the head, wherein a first retaining element (8a, 8b) is provided that prevents the pressure element from moving further towards the top end in the insertion position and characterized in that a second retaining element (11, 60, 60") different from the first retaining element and different from the narrowing portion is provided that prevents the pressure element from moving further towards the top end in the pre-locking position.
A method comprising: wirelessly transmitting one or more messages to first and second sensor assemblies (108a, 108b) in order to synchronize clocks of the sensor assemblies; wirelessly receiving multiple sensor measurements of at least one characteristic of a web of material from the sensor assemblies, each of said sensor assemblies comprise one or more sensors mounted on a scanning head which moves across the web of material along opposite sides of the web; receiving timestamps and position data associated with the sensor measurements; and correlating the sensor measurements, timestamps, and position data to identify sensor measurements from the first and second sensor assemblies associated with common times and positions of the web. wirelessly transmitting one or more messages to first and second sensor assemblies (108a, 108b) in order to synchronize clocks of the sensor assemblies; wirelessly receiving multiple sensor measurements of at least one characteristic of a web of material from the sensor assemblies, each of said sensor assemblies comprise one or more sensors mounted on a scanning head which moves across the web of material along opposite sides of the web; receiving timestamps and position data associated with the sensor measurements; and correlating the sensor measurements, timestamps, and position data to identify sensor measurements from the first and second sensor assemblies associated with common times and positions of the web.
A method of manufacturing a structure onto a base component, comprising: providing a nozzle in a first position near the base component, the nozzle being configured to extrude material in a first direction; extruding a first portion of material through the nozzle onto the base component, wherein the first portion of material spreads outwardly in a second direction that is perpendicular to the first direction when the first portion of material contacts the base component; forming a first portion of the structure including the extruded first portion of material; moving the nozzle away from the first portion of material along the first direction to a second position; extruding a second portion of material through the nozzle onto the first portion of the structure, wherein the second portion of material spreads outwardly in the second direction when the second portion of material contacts the first portion of the structure; forming a second portion of the structure including the extruded second portion of material; wherein the first portion of the structure has a first cross-sectional area and the second portion of the structure has a second cross-sectional area; and wherein the first cross-sectional area is different from the second cross-sectional area, characterized by varying the rate at which the nozzle is withdrawn from the base component, wherein the first portion of material is associated with a first withdrawal rate of the nozzle and wherein the second portion of material is associated with a second withdrawal rate of the nozzle that is different from the first withdrawal rate. providing a nozzle in a first position near the base component, the nozzle being configured to extrude material in a first direction; extruding a first portion of material through the nozzle onto the base component, wherein the first portion of material spreads outwardly in a second direction that is perpendicular to the first direction when the first portion of material contacts the base component; forming a first portion of the structure including the extruded first portion of material; moving the nozzle away from the first portion of material along the first direction to a second position; extruding a second portion of material through the nozzle onto the first portion of the structure, wherein the second portion of material spreads outwardly in the second direction when the second portion of material contacts the first portion of the structure; forming a second portion of the structure including the extruded second portion of material; wherein the first portion of the structure has a first cross-sectional area and the second portion of the structure has a second cross-sectional area; and wherein the first cross-sectional area is different from the second cross-sectional area, characterized by varying the rate at which the nozzle is withdrawn from the base component, wherein the first portion of material is associated with a first withdrawal rate of the nozzle and wherein the second portion of material is associated with a second withdrawal rate of the nozzle that is different from the first withdrawal rate.
A method, comprising: receiving (303, 401), by a first radio access network entity, at least one user equipment context modification request from a second radio access network entity, where the at least one user equipment context modification request includes information related to configuration of multicast transmission comprising at least one switching configuration; configuring (305, 403), by the first radio access network entity, in response to receiving the at least one user equipment context modification request, at least one of one or more unicast channels and one or more multicast channels; receiving, by the first radio access network entity, multicast data; and selecting, by the first radio access network entity, based on the at least one switching configuration, at least one of the one or more multicast channels and the one or more unicast channels to transmit the multicast data. receiving (303, 401), by a first radio access network entity, at least one user equipment context modification request from a second radio access network entity, where the at least one user equipment context modification request includes information related to configuration of multicast transmission comprising at least one switching configuration; configuring (305, 403), by the first radio access network entity, in response to receiving the at least one user equipment context modification request, at least one of one or more unicast channels and one or more multicast channels; receiving, by the first radio access network entity, multicast data; and selecting, by the first radio access network entity, based on the at least one switching configuration, at least one of the one or more multicast channels and the one or more unicast channels to transmit the multicast data.
A nuclear plant comprising: a reactor vessel supported within a cavity of a containment facility, the reactor vessel having a detachable head assembly; a portion of a containment structure within the containment facility constructed adjacent the cavity; an anchor secured to a first portion of the containment structure; a plurality of tie rods (58, 60) for supporting the reactor vessel head assembly, at least some of the tie rods having one end connected to the reactor vessel head assembly and another end for engaging the anchor; and characterized by a locking mechanism on the anchor, which locking mechanism is specially adapted to be operated from a location on a second portion of the containment structure remote from the anchor to lock or unlock the another end of the tie rod in or from engagement with die anchor. a reactor vessel supported within a cavity of a containment facility, the reactor vessel having a detachable head assembly; a portion of a containment structure within the containment facility constructed adjacent the cavity; an anchor secured to a first portion of the containment structure; a plurality of tie rods (58, 60) for supporting the reactor vessel head assembly, at least some of the tie rods having one end connected to the reactor vessel head assembly and another end for engaging the anchor; and characterized by a locking mechanism on the anchor, which locking mechanism is specially adapted to be operated from a location on a second portion of the containment structure remote from the anchor to lock or unlock the another end of the tie rod in or from engagement with die anchor.
A pipe coupling comprising: a support sleeve comprising a tube having contact sections (21, 22) at either end and a compensation section therebetween; at least one adjustable clamping band (31, 32) for each contact section; and an elastomeric sleeve comprising a substantially tubular body and circumferential flaps (11, 12) provided at each end of the body, the circumferential flaps (11, 12) overlapping the outer surface of the body to define a partially enclosed channel within which the contact sections (21, 22) of the support sleeve are provided and wherein the adjustable clamping bands (31, 32) are provided around the outer surface of the circumferential flaps (11, 12) and wherein axial slots are of substantially constant width in the compensation section and are of varying width in the second contact section, or the axial slots may vary substantially constantly in width along the slot, or the axial slots may be of differing widths in the compensation section and the second contact section.
A method for producing a DOPE chart for an optical device comprising: providing a configuration interface on a user computer; providing at least one server for storing and processing data for the configuration interface; selecting one of a plurality of available DOPE chart styles; entering at least one desired DOPE value into a DOPE chart configuration table displayed on the configuration interface; and producing a display that includes the DOPE chart; wherein the display is generally round and having a perimeter that includes at least one indent formed into the perimeter such that the display may be released from an optic cover cap. providing a configuration interface on a user computer; providing at least one server for storing and processing data for the configuration interface; selecting one of a plurality of available DOPE chart styles; entering at least one desired DOPE value into a DOPE chart configuration table displayed on the configuration interface; and producing a display that includes the DOPE chart; wherein the display is generally round and having a perimeter that includes at least one indent formed into the perimeter such that the display may be released from an optic cover cap.