mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel nozzle assembly for use with a turbine engine , said fuel nozzle assembly comprising: a plurality of fuel nozzles positioned within an air plenum defined by a casing , each of said plurality of fuel nozzles coupled to a combustion liner defining a combustion chamber, each of said plurality of fuel nozzles comprises: a housing comprising a sidewall extending between a forward endwall and an opposite aft endwall , said sidewall comprising an inner surface that defines a cooling fluid plenum and a fuel plenum , wherein a fluid conduit is coupled in flow communication with said fuel plenum , therein, said sidewall comprising at least one opening extending through said inner surface of said sidewall ; and a plurality of mixing tubes extending through said housing, wherein each of said mixing tubes comprises an inner surface defining a flow channel extending between the air plenum and the combustion chamber, at least one mixing tube of said plurality of mixing tubes comprises at least one cooling fluid aperture for channeling a flow of cooling fluid from said cooling fluid plenum to said flow channel; and at least one cooling conduit coupled to said sidewall such that said at least one sidewall opening couples said cooling conduit in flow communication with said cooling fluid plenum for channeling a flow of cooling fluid to said cooling fluid plenum. a housing comprising a sidewall extending between a forward endwall and an opposite aft endwall , said sidewall comprising an inner surface that defines a cooling fluid plenum and a fuel plenum , wherein a fluid conduit is coupled in flow communication with said fuel plenum , therein, said sidewall comprising at least one opening extending through said inner surface of said sidewall ; and a plurality of mixing tubes extending through said housing, wherein each of said mixing tubes comprises an inner surface defining a flow channel extending between the air plenum and the combustion chamber, at least one mixing tube of said plurality of mixing tubes comprises at least one cooling fluid aperture for channeling a flow of cooling fluid from said cooling fluid plenum to said flow channel; and at least one cooling conduit coupled to said sidewall such that said at least one sidewall opening couples said cooling conduit in flow communication with said cooling fluid plenum for channeling a flow of cooling fluid to said cooling fluid plenum.
A method comprising: displaying an interface comprising an aggregate set of status data on a display coupled to a lab instrument when the lab instrument is in a first state, the interface configured to navigate a user to a destination interface based upon a user selection or input; displaying the destination interface associated with a user selected status data of the aggregate set of status data on the display ; whenever the interface is displayed, storing a stored interface state of the lab instrument from the moment before the interface is displayed; and returning the lab instrument to the stored interface state. displaying an interface comprising an aggregate set of status data on a display coupled to a lab instrument when the lab instrument is in a first state, the interface configured to navigate a user to a destination interface based upon a user selection or input; displaying the destination interface associated with a user selected status data of the aggregate set of status data on the display ; whenever the interface is displayed, storing a stored interface state of the lab instrument from the moment before the interface is displayed; and returning the lab instrument to the stored interface state.
A data transmission method, comprising: receiving , by a centralized unit , CU, a first message sent by a distributed unit , DU, wherein the first message comprises a first transport block size, TBS, threshold, and the first TBS threshold is used for early transmission of uplink data; sending , by the CU, the first TBS threshold to a user equipment, UE; and receiving , by the CU, uplink data that is sent by the UE based on the first TBS threshold. receiving , by a centralized unit , CU, a first message sent by a distributed unit , DU, wherein the first message comprises a first transport block size, TBS, threshold, and the first TBS threshold is used for early transmission of uplink data; sending , by the CU, the first TBS threshold to a user equipment, UE; and receiving , by the CU, uplink data that is sent by the UE based on the first TBS threshold.
Process for forming and/or obtaining vivianite in or from a phosphorus-containing waterbody, sediment and/or sludge, respectively, comprising: (a) introducing and/or applying a composition comprising at least one alkaline earth metal peroxide into and/or to the waterbody, the sediment and/or the sludge; (b) forming vivianite in the waterbody, sediment and/or sludge; and (c) magnetically removing the vivianite from the waterbody, sediment and/or sludge, and wherein, if not enough iron ions are present, iron ions, in particular Fe 2+ ions, are introduced and/or applied. (a) introducing and/or applying a composition comprising at least one alkaline earth metal peroxide into and/or to the waterbody, the sediment and/or the sludge; (b) forming vivianite in the waterbody, sediment and/or sludge; and (c) magnetically removing the vivianite from the waterbody, sediment and/or sludge, and
An overlay for guiding a dental cutting tool in a removal of predetermined tooth structure from a tooth to be treated of a patient, the overlay comprising: an inner surface having a shape and dimensions corresponding to either one or both of an outer surface of the tooth to be treated and an outer surface of a neighboring tooth of the tooth to be treated so that the inner surface is releasably fixable to either one or both of the tooth to be treated and the neighboring tooth of the tooth to be treated, respectively; a first guiding edge extending through a thickness of the overlay, the first guiding edge having a contour corresponding to any one or any combination of horizontal, vertical, and tilt movements able to be followed by a dental cutting tool; and a second guiding edge extending through the thickness of the overlay and spaced apart from the first guiding edge by a distance (d) of at least 0,5 mm, the second guiding edge having a contour corresponding to the one or ones of the horizontal, vertical, and tilt movements able to be followed by the dental cutting tool, the first and the second guiding edges being able to simultaneously contact the dental cutting tool following the one or ones of the horizontal, vertical, and tilt movements, wherein that said inner surface contacts and closely surrounds teeth of the patient so that the overlay remains stable and does not release upon application of pressure to the overlay when contacted by the dental cutting tool during the removal of the predetermined tooth structure through normal use of the overlay. an inner surface having a shape and dimensions corresponding to either one or both of an outer surface of the tooth to be treated and an outer surface of a neighboring tooth of the tooth to be treated so that the inner surface is releasably fixable to either one or both of the tooth to be treated and the neighboring tooth of the tooth to be treated, respectively; a first guiding edge extending through a thickness of the overlay, the first guiding edge having a contour corresponding to any one or any combination of horizontal, vertical, and tilt movements able to be followed by a dental cutting tool; and a second guiding edge extending through the thickness of the overlay and spaced apart from the first guiding edge by a distance (d) of at least 0,5 mm, the second guiding edge having a contour corresponding to the one or ones of the horizontal, vertical, and tilt movements able to be followed by the dental cutting tool, the first and the second guiding edges being able to simultaneously contact the dental cutting tool following the one or ones of the horizontal, vertical, and tilt movements, wherein that said inner surface contacts and closely surrounds teeth of the patient so that the overlay remains stable and does not release upon application of pressure to the overlay when contacted by the dental cutting tool during the removal of the predetermined tooth structure through normal use of the overlay.
A method for imaging fibrous nylon flooring material, the method comprising: receiving the fibrous nylon flooring material ; pre-treating the flooring material using aqueous pre-treatment agent; providing a digital printing station, and printing an image to at least a portion of the flooring material using an ink with aid of a piezoelectric printhead of the digital printing station, wherein the ink is an aqueous acid dye with a viscosity ranging from 2 to 100 mPa.s (centipoises); receiving information about one or more parameters of the flooring material and determining, with aid of a processor, an amount of the ink to be used when digitally printing the image on the flooring material based on the one or more parameters; curing the flooring material, with aid of a steamer, by steaming the flooring material and applying an elution liquid to the flooring material allowing colorant in the ink to penetrate through piles of the flooring material ; and drying the flooring material , thereby yielding a finished imaged flooring material . receiving the fibrous nylon flooring material ; pre-treating the flooring material using aqueous pre-treatment agent; providing a digital printing station, and printing an image to at least a portion of the flooring material using an ink with aid of a piezoelectric printhead of the digital printing station, wherein the ink is an aqueous acid dye with a viscosity ranging from 2 to 100 mPa.s (centipoises); receiving information about one or more parameters of the flooring material and determining, with aid of a processor, an amount of the ink to be used when digitally printing the image on the flooring material based on the one or more parameters; curing the flooring material, with aid of a steamer, by steaming the flooring material and applying an elution liquid to the flooring material allowing colorant in the ink to penetrate through piles of the flooring material ; and drying the flooring material , thereby yielding a finished imaged flooring material .
An implantable medical device 200, comprising: a fluid shunt 202 adapted to extend through a wall 204 separating a first cavity 206 and a second cavity 208 within the heart, the fluid shunt 202 including a first portion 210 adapted to extend into the first cavity 206 within the heart, a second portion 212 adapted to extend into the second cavity 208 within the heart, and an intermediate portion 214 interconnecting the first 210 and second portions 212, the fluid shunt 202 having a lumen 216 extending between the first 210 and second 212 portions that is adapted to fluidly couple the first 206 and second 208 cavities within the heart; an occlusion assembly 218 associated with the fluid shunt 202 and adapted to selectively occlude flow through the lumen 216 of the fluid shunt 202, the occlusion assembly 218 being configured to be in a closed configuration such that the lumen of the fluid shunt is initially in a sealed state and to be activated to adjust flow through the lumen 216 of the fluid shunt 202; wherein the occlusion assembly 218 comprises a thermoplastic polymer membrane; and wherein the occlusion assembly 218 includes a thermal actuation mechanism configured to be activated by heating to adjust flow through the lumen 216 of the fluid shunt 202; and at least one sensor assembly associated with the first portion 210 of the fluid shunt 202 such that the at least one sensor assembly is adapted to sense one or more physiologic parameters in the first cavity 206. a fluid shunt 202 adapted to extend through a wall 204 separating a first cavity 206 and a second cavity 208 within the heart, the fluid shunt 202 including a first portion 210 adapted to extend into the first cavity 206 within the heart, a second portion 212 adapted to extend into the second cavity 208 within the heart, and an intermediate portion 214 interconnecting the first 210 and second portions 212, the fluid shunt 202 having a lumen 216 extending between the first 210 and second 212 portions that is adapted to fluidly couple the first 206 and second 208 cavities within the heart; an occlusion assembly 218 associated with the fluid shunt 202 and adapted to selectively occlude flow through the lumen 216 of the fluid shunt 202, the occlusion assembly 218 being configured to be in a closed configuration such that the lumen of the fluid shunt is initially in a sealed state and to be activated to adjust flow through the lumen 216 of the fluid shunt 202; wherein the occlusion assembly 218 comprises a thermoplastic polymer membrane; and wherein the occlusion assembly 218 includes a thermal actuation mechanism configured to be activated by heating to adjust flow through the lumen 216 of the fluid shunt 202; and at least one sensor assembly associated with the first portion 210 of the fluid shunt 202 such that the at least one sensor assembly is adapted to sense one or more physiologic parameters in the first cavity 206.
A medicament for treating a latent viral disease, comprising: a Histone Deacetylase (HDAC) inhibitor and a Bryoid, said HDAC inhibitor and said Bryoid are carried by one or more particles , wherein said HDAC inhibitor and said Bryoid are co-encapsulated in said one or more particles , and wherein said one or more particles has a core , at least one surrounding material and an outer surface , said core having a mixture of a hydrophilic material and said HDAC inhibitor, and said surrounding material having a mixture of a hydrophobic material and said Bryoid, said surrounding material enveloping said core and said outer surface surrounding said surrounding material .
A control system for a road treatment vehicle , comprising: a processor ; and a storage unit storing computer-readable instructions, wherein, when the computer-readable instructions are accessed and executed by the processor , the processor of the control system is configured to: receive, from a salinity sensor associated with the road treatment vehicle, salinity data comprising an indication of a salinity associated with a surface of a road section on which the road treatment vehicle is located; receive, from the storage unit , historical data comprising historical salinity data indicating the salinity associated with the surface of the road section on which the road treatment vehicle is located at a previous time; determine a treatment material index for the road section indicating a degradation rate of the treatment material for the road section based on the salinity data and the historical data ; and determine, in dependence on determining the treatment material index , one or more road treatment parameters for the road treatment material. a processor ; and a storage unit storing computer-readable instructions, wherein, when the computer-readable instructions are accessed and executed by the processor , the processor of the control system is configured to: receive, from a salinity sensor associated with the road treatment vehicle, salinity data comprising an indication of a salinity associated with a surface of a road section on which the road treatment vehicle is located; receive, from the storage unit , historical data comprising historical salinity data indicating the salinity associated with the surface of the road section on which the road treatment vehicle is located at a previous time; determine a treatment material index for the road section indicating a degradation rate of the treatment material for the road section based on the salinity data and the historical data ; and determine, in dependence on determining the treatment material index , one or more road treatment parameters for the road treatment material. receive, from a salinity sensor associated with the road treatment vehicle, salinity data comprising an indication of a salinity associated with a surface of a road section on which the road treatment vehicle is located; receive, from the storage unit , historical data comprising historical salinity data indicating the salinity associated with the surface of the road section on which the road treatment vehicle is located at a previous time; determine a treatment material index for the road section indicating a degradation rate of the treatment material for the road section based on the salinity data and the historical data ; and determine, in dependence on determining the treatment material index , one or more road treatment parameters for the road treatment material.
A method comprising: receiving, by a session management function, SMF, from a wireless device, a first message comprising a delay value indicating a processing time, at the wireless device, of data for an application; and sending, by the SMF to the wireless device, based on an amount of time associated with the offloaded processing of the data being less than the delay value, a second message indicating that offloaded processing of the data is supported. receiving, by a session management function, SMF, from a wireless device, a first message comprising a delay value indicating a processing time, at the wireless device, of data for an application; and sending, by the SMF to the wireless device, based on an amount of time associated with the offloaded processing of the data being less than the delay value, a second message indicating that offloaded processing of the data is supported.
Device for measuring the relative time of arrival of at least two signals, the device comprising at least one TDC , each TDC receiving a reference clock signal (CLK) which determines a period of oscillation (T CK ) and comprising at least one channel each adapted to read a time of arrival (t' A,n=1-N , t" A,n=1-N ) of an event signal (S n=1-N ), wherein each TDC comprises a free-running ring oscillator as well as at least one supplementary channel (Ch CLK ) dedicated to said reference clock signal (CLK), and wherein each TDC is adapted to measure, concurrently to measuring said time of arrival (t' A,n=1-N , t" A,n=1-N ) of an event signal (S n=1-N ) and by use of said free-running ring oscillator , at least two of preceding and/or subsequent edges (t CK0 , t CK1 ) of the reference clock signal (CLK) such as to allow, event by event or at least periodically, to measure the current period of oscillation (T' DT ) of the reference clock signal (CLK) of each TDC by use of said at least one supplementary channel (Ch CLK ) of each TDC dedicated to the reference clock signal (CLK).
A coated seed composition comprising: at least one seed; and at least one layer coating all or part of the seed, the layer comprising: - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; wherein the crosslinked biopolymer is amylose and/or amylopectin, characterised in that the crosslinked biopolymer has an average particle size of less than 400nm. at least one seed; and at least one layer coating all or part of the seed, the layer comprising: - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; wherein the crosslinked biopolymer is amylose and/or amylopectin, characterised in that the crosslinked biopolymer has an average particle size of less than 400nm.
An apparatus for atomic probe tomography APT, the apparatus comprising a vacuum chamber , a sample holder for holding a sample inside the vacuum chamber, the sample having a free-standing tip, a 2-dimensional APT detector for detecting atoms evaporated from the tip, a voltage source for applying a voltage difference between the sample and the APT detector, an APT processing tool for reconstructing the material of the tip based on the detected atoms, wherein the apparatus further comprises : • a beam nozzle for delivering a coherent photon beam into the vacuum chamber , the beam being directed at the tip and having a beam energy in the soft X-ray energy range, the apparatus characterised by further comprising: • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area. • a beam nozzle for delivering a coherent photon beam into the vacuum chamber , the beam being directed at the tip and having a beam energy in the soft X-ray energy range, the apparatus characterised by further comprising: • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area. • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area.