mhurhangee/patent-ind-claim-en huggingface dataset:
An alkaline energy curable water-based inkjet ink or coating composition comprising: a) a photoinitiator of Formula IA: wherein each R 1 is an independently selected hydrogen or a C 1 -C 4 alkyl group; each R 2 and R 3 is independently selected from the group consisting of hydrogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, and halogen; y is 0 or 1; q is 0,1, or 2; and n is a number from 0 to 8; b) a polymer which is water-soluble, or dispersible in water, either as a liquid in liquid emulsion, or a particle suspension; c) water; and d) one or more tertiary amine synergists; wherein the pH of the composition is 7.0 to 9.5; and wherein the weight ratio of the amine synergists to the photoinitiator of Formula IA is greater than 10:1. a) a photoinitiator of Formula IA: wherein each R 1 is an independently selected hydrogen or a C 1 -C 4 alkyl group; each R 2 and R 3 is independently selected from the group consisting of hydrogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, and halogen; y is 0 or 1; q is 0,1, or 2; and n is a number from 0 to 8; wherein each R 1 is an independently selected hydrogen or a C 1 -C 4 alkyl group; each R 2 and R 3 is independently selected from the group consisting of hydrogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, and halogen; y is 0 or 1; q is 0,1, or 2; and n is a number from 0 to 8; b) a polymer which is water-soluble, or dispersible in water, either as a liquid in liquid emulsion, or a particle suspension; c) water; and d) one or more tertiary amine synergists;
Electrical sensor , in particular temperature sensor, having a carrier element and at least one electrical or electronic component , which is received in a receiving arrangement of the carrier element and is preferably fixed in position by the carrier element in at least one spatial direction, wherein the carrier element is embodied in a tubular manner at least in sections and delimits a cavity that is open at least on one side, and wherein the receiving arrangement for the electrical or electronic component is embodied in a surface that is facing the cavity or in a surface of the carrier element that is remote from the cavity , characterised in that the carrier element is overmoulded at least in regions using different synthetic materials , wherein preferably a first synthetic material is a thermally conductive synthetic material and a further synthetic material is a thermally nonconductive synthetic material, and wherein the carrier element is overmoulded in the region of the at least one electrical or electronic component using a synthetic material , which is an electrically insulating and/or thermally conductive synthetic material.
A device for generating soft x-rays, the device comprising: an electron source configured to generate an electron beam comprising electron micro-bunches; an electron accelerator configured to accelerate the electron micro-bunches from the electron source; and a laser configured to generate a laser beam colliding with the accelerated electron micro-bunches in a counter-propagating direction to generate the soft x-rays; characterised in that the electron source comprises: a magneto-optical trap configured to produce an ultracold atomic gas; two counterpropagating excitation laser beams configured to produce a standing wave for inducing a periodic spatial modulation of the ultracold atomic gas along a beam propagation direction; an ionization laser configured to induce photo-ionization of the ultracold atomic gas. an electron source configured to generate an electron beam comprising electron micro-bunches; an electron accelerator configured to accelerate the electron micro-bunches from the electron source; and a laser configured to generate a laser beam colliding with the accelerated electron micro-bunches in a counter-propagating direction to generate the soft x-rays; characterised in that the electron source comprises: a magneto-optical trap configured to produce an ultracold atomic gas; two counterpropagating excitation laser beams configured to produce a standing wave for inducing a periodic spatial modulation of the ultracold atomic gas along a beam propagation direction; an ionization laser configured to induce photo-ionization of the ultracold atomic gas. a magneto-optical trap configured to produce an ultracold atomic gas; two counterpropagating excitation laser beams configured to produce a standing wave for inducing a periodic spatial modulation of the ultracold atomic gas along a beam propagation direction; an ionization laser configured to induce photo-ionization of the ultracold atomic gas.
A liquid droplet discharging apparatus comprising: a carriage that retains a discharge section , which is configured to discharge liquid droplets onto a medium; a support section that supports the carriage in a manner in which the carriage is capable of reciprocating; a housing that supports the support section; and a detection section that is capable of detecting a relative positional relationship between the support section and the housing; characterised in that the liquid droplet discharging apparatus further comprises: a display section ; and a control section that, on the basis of the detection results of the detection section, is configured to execute a warning process that displays a warning on the display section in a case in which the positional relationship changes, and not to execute the warning process in a case in which the positional relationship does not change. a carriage that retains a discharge section , which is configured to discharge liquid droplets onto a medium; a support section that supports the carriage in a manner in which the carriage is capable of reciprocating; a housing that supports the support section; and a detection section that is capable of detecting a relative positional relationship between the support section and the housing; characterised in that the liquid droplet discharging apparatus further comprises: a display section ; and a control section that, on the basis of the detection results of the detection section, is configured to execute a warning process that displays a warning on the display section in a case in which the positional relationship changes, and not to execute the warning process in a case in which the positional relationship does not change. a display section ; and a control section that, on the basis of the detection results of the detection section, is configured to execute a warning process that displays a warning on the display section in a case in which the positional relationship changes, and not to execute the warning process in a case in which the positional relationship does not change.
A method for producing polyanionic positive electrode active material composite particles, comprising: a step 1 wherein precursor composite granulated bodies, each of which contains a polyanionic positive electrode active material precursor particle in graphite oxide, are formed by mixing a polyanionic positive electrode active material precursor and graphite oxide; and a step 2 wherein the precursor composite granulated bodies obtained in the step 1 are heated at 500°C or higher in an inert atmosphere or in a reducing atmosphere; wherein in the X-ray diffraction intensity of the precursor composite granulated bodies, the maximum intensity of the X-ray diffraction peak based on the positive electrode active material is less than 50% of the maximum intensity of the X-ray diffraction peak based on the materials other than the positive electrode active material, and in the X-ray diffraction intensity of the polyanionic positive electrode active material composite particles, the maximum intensity of the X-ray diffraction peak based on the positive electrode active material is 50% or more of the maximum intensity of the X-ray diffraction peak based on the materials other than the positive electrode active material, characterized in that a primary particle diameter of the polyanionic positive electrode active material precursor contained in the composite granulated body in the step 1 is not less than 10 nm and not more than 50 nm, and in that the method further comprises a step of chemically reducing the composite granulated body obtained in the step 1 prior to the step 2. a step 1 wherein precursor composite granulated bodies, each of which contains a polyanionic positive electrode active material precursor particle in graphite oxide, are formed by mixing a polyanionic positive electrode active material precursor and graphite oxide; and a step 2 wherein the precursor composite granulated bodies obtained in the step 1 are heated at 500°C or higher in an inert atmosphere or in a reducing atmosphere; wherein in the X-ray diffraction intensity of the precursor composite granulated bodies, the maximum intensity of the X-ray diffraction peak based on the positive electrode active material is less than 50% of the maximum intensity of the X-ray diffraction peak based on the materials other than the positive electrode active material, and in the X-ray diffraction intensity of the polyanionic positive electrode active material composite particles, the maximum intensity of the X-ray diffraction peak based on the positive electrode active material is 50% or more of the maximum intensity of the X-ray diffraction peak based on the materials other than the positive electrode active material, characterized in that a primary particle diameter of the polyanionic positive electrode active material precursor contained in the composite granulated body in the step 1 is not less than 10 nm and not more than 50 nm, and in that the method further comprises a step of chemically reducing the composite granulated body obtained in the step 1 prior to the step 2.
A method for inclined shooting of a projectile weapon having a weapon sight that has been sighted in for a horizontal sighted-in range (R 0 ), comprising: measuring an inclination (θ) of a line of sight (LOS) between a vantage point (VP) and a target (T) that is elevated or depressed relative to the vantage point, the target being at a horizontal distance from the vantage point; measuring a line-of-sight range (R 1 , R 2 ) from the vantage point to the target; for a projectile (P) to be shot from the projectile weapon so as to have, at the line-of-sight range, a trajectory parameter comprising any of: a ballistic path height, a ballistic drop relative to line of initial trajectory, an observed ballistic drop perpendicular to the LOS, velocity, energy, and momentum, calculating an equivalent horizontal range (EHR 1 , EHR 2 ) as a function of the trajectory parameter and a ballistic coefficient or other ballistic characteristic representative of an aerodynamic property of the projectile, the equivalent horizontal range being different from the horizontal distance; and providing ballistic correction for aiming the weapon sight when shooting the projectile at the target. measuring an inclination (θ) of a line of sight (LOS) between a vantage point (VP) and a target (T) that is elevated or depressed relative to the vantage point, the target being at a horizontal distance from the vantage point; measuring a line-of-sight range (R 1 , R 2 ) from the vantage point to the target; for a projectile (P) to be shot from the projectile weapon so as to have, at the line-of-sight range, a trajectory parameter comprising any of: a ballistic path height, a ballistic drop relative to line of initial trajectory, an observed ballistic drop perpendicular to the LOS, velocity, energy, and momentum, calculating an equivalent horizontal range (EHR 1 , EHR 2 ) as a function of the trajectory parameter and a ballistic coefficient or other ballistic characteristic representative of an aerodynamic property of the projectile, the equivalent horizontal range being different from the horizontal distance; and providing ballistic correction for aiming the weapon sight when shooting the projectile at the target.
A liquid pressurized gas stove having a fuel gas burner, the fuel gas burner comprising: a cavity defined, at least in part, by a fuel gas impermeable surrounding and a fuel gas permeable burner element having an interior surface exposed to the cavity and an exterior surface exposed to the environment, wherein the fuel gas impermeable surrounding has a plurality of openings ; a corresponding number of cylindrical mixing tubes , each mixing tube having a longitudinal axis, a first end and a second end , wherein the first end is exposed to the environment by being fluidly and sealingly coupled to the corresponding opening and the second end extends into the cavity being fluidly coupled to the cavity; and a corresponding number of fuel gas injectors at or proximate to the corresponding first end for injecting fuel gas into the corresponding mixing tube and entrainment of an oxidizer available to the mixing tube, whereby a volume of pressurized combustible gas is created within the cavity, which diffuses from the interior surface of the burner element to the exterior surface of the burner element. a cavity defined, at least in part, by a fuel gas impermeable surrounding and a fuel gas permeable burner element having an interior surface exposed to the cavity and an exterior surface exposed to the environment, wherein the fuel gas impermeable surrounding has a plurality of openings ; a corresponding number of cylindrical mixing tubes , each mixing tube having a longitudinal axis, a first end and a second end , wherein the first end is exposed to the environment by being fluidly and sealingly coupled to the corresponding opening and the second end extends into the cavity being fluidly coupled to the cavity; and a corresponding number of fuel gas injectors at or proximate to the corresponding first end for injecting fuel gas into the corresponding mixing tube and entrainment of an oxidizer available to the mixing tube, whereby a volume of pressurized combustible gas is created within the cavity, which diffuses from the interior surface of the burner element to the exterior surface of the burner element.
A radio link monitoring, RLM, method, comprising: configuring, by a base station in a user equipment UE, a preset threshold of a timer/counter; sending , by the user equipment UE, report information to the base station, wherein the report information comprises a detection result of one or more downlink reference signals of the UE or a status of a timer/counter corresponding to the one or more downlink reference signals, wherein when the UE does not detect the one or more downlink reference signals or energy of at least one detected downlink reference signal is lower than a threshold, incrementing a value of the timer/counter, and the UE sends the report information to the base station when the preset threshold of the timer/counter is reached; and receiving , by the UE, feedback information from the base station, wherein the feedback information comprises sending status information of the one or more downlink reference signals. configuring, by a base station in a user equipment UE, a preset threshold of a timer/counter; sending , by the user equipment UE, report information to the base station, wherein the report information comprises a detection result of one or more downlink reference signals of the UE or a status of a timer/counter corresponding to the one or more downlink reference signals, wherein when the UE does not detect the one or more downlink reference signals or energy of at least one detected downlink reference signal is lower than a threshold, incrementing a value of the timer/counter, and the UE sends the report information to the base station when the preset threshold of the timer/counter is reached; and receiving , by the UE, feedback information from the base station, wherein the feedback information comprises sending status information of the one or more downlink reference signals.
Method for manufacturing a shell mold for the production by lost-wax casting of a plurality of bladed elements of an aircraft turbine engine, said shell mold in cluster form comprising a plurality of bladed shell mold elements each intended to obtain one of said bladed turbine engine elements , said method comprising the following steps: a) creating an assembly about which the shell mold is intended to be formed, the assembly including a wax pattern as well as a device for subsequently forming a cup for pouring metal , said device having an end surface ; c) forming the shell mold about said assembly ; characterized in that the method further includes, in addition to steps b) and c), le following step: b) depositing a hot wax coating layer around at least one portion of said assembly , such that said coating layer covers at least one portion of the end surface of the device intended to subsequently form the cup for pouring metal; and in that the method further includes, between steps b) and c), the implementation of a step of structuring the coating layer covering said end surface , this structuring step being intended to reinforce the adhesion between this layer and the shell mold to be formed, and including the production of recesses and projections on the still-malleable coating layer. a) creating an assembly about which the shell mold is intended to be formed, the assembly including a wax pattern as well as a device for subsequently forming a cup for pouring metal , said device having an end surface ; c) forming the shell mold about said assembly ;
A system for fluid contacting in a downflow catalyst bed reactor , comprising: a superior catalyst bed and an inferior catalyst bed ; a liquid collection tray positioned in a contacting space between the superior catalyst bed and the inferior catalyst bed in the downflow catalyst bed reactor for collecting fluid traveling downward from a superior catalyst bed ; a mixing device having an inlet in communication with the liquid collection tray for contacting fluid; a top plate of the mixing device having an upper surface spaced from a bottom portion of the upper bed system and configured to direct fluid from the upper bed system to at least one of the liquid collection tray and the mixing device ; a quench fluid distributor positioned radially outwardly of the mixing device within walls of the downflow reactor having quench fluid outlets for distributing a quench fluid for contacting the fluid from the upper bed system ; an elongate mixing channel of the mixing device , wherein the mixing channel is an elongate annular channel extending about the centre axis of the reactor and/or the mixing device ; a liquid inlet of the mixing channel in communication with the liquid collection tray ; and a vapor inlet of the mixing channel positioned downstream of the liquid inlet along the mixing channel for passing vapor into liquid flowing through the mixing channel . a superior catalyst bed and an inferior catalyst bed ; a liquid collection tray positioned in a contacting space between the superior catalyst bed and the inferior catalyst bed in the downflow catalyst bed reactor for collecting fluid traveling downward from a superior catalyst bed ; a mixing device having an inlet in communication with the liquid collection tray for contacting fluid; a top plate of the mixing device having an upper surface spaced from a bottom portion of the upper bed system and configured to direct fluid from the upper bed system to at least one of the liquid collection tray and the mixing device ; a quench fluid distributor positioned radially outwardly of the mixing device within walls of the downflow reactor having quench fluid outlets for distributing a quench fluid for contacting the fluid from the upper bed system ; an elongate mixing channel of the mixing device , wherein the mixing channel is an elongate annular channel extending about the centre axis of the reactor and/or the mixing device ; a liquid inlet of the mixing channel in communication with the liquid collection tray ; and a vapor inlet of the mixing channel positioned downstream of the liquid inlet along the mixing channel for passing vapor into liquid flowing through the mixing channel .
Tempering device for dermal application, having: a skin contact surface ; at least one Peltier element which is connected to the skin contact surface and has two parallel insulation plates spaced apart from one another, between which doped semi-conductor elements are inserted, through which electric current can be conducted; and a temperature sensor , which is integrated in a recess of the Peltier element between the insulation plates and is connected to a temperature measuring circuit outside of the Peltier element , and which has a printed circuit board and a negative temperature coefficient sensor, NTC sensor , fitted to one side of the printed circuit board, characterised in that the temperature sensor further has a clasp spring device , which is attached to one side of the printed circuit board facing away from the NTC sensor . a skin contact surface ; at least one Peltier element which is connected to the skin contact surface and has two parallel insulation plates spaced apart from one another, between which doped semi-conductor elements are inserted, through which electric current can be conducted; and a temperature sensor , which is integrated in a recess of the Peltier element between the insulation plates and is connected to a temperature measuring circuit outside of the Peltier element , and which has a printed circuit board and a negative temperature coefficient sensor, NTC sensor , fitted to one side of the printed circuit board, characterised in that the temperature sensor further has a clasp spring device , which is attached to one side of the printed circuit board facing away from the NTC sensor .
Oral formulation providing modified release dosage comprising lactoferrin for use in the treatment of inflammatory bowel disease associated with Adherent-invasive Escherichia coli (AIEC) invasion.
A tank configured to hold a pressurized substance, the tank comprising: a chamber , the chamber configured to enclose the pressurized substance and provide a seal between the pressurized substance and a surrounding atmosphere, an endoskeleton arranged within the chamber and being coupled to the chamber to provide structural support to the chamber , wherein the endoskeleton comprises a plurality of coupled support members , wherein the plurality of coupled support members comprises at least a first set of support members having sides that are formed by sheets, wherein each support member of the support members in the first set comprises interior asymmetric tetrahedral structures formed by the sides, wherein each side of the asymmetric tetrahedral structures is in the shape of a non-equilateral triangle. a chamber , the chamber configured to enclose the pressurized substance and provide a seal between the pressurized substance and a surrounding atmosphere, an endoskeleton arranged within the chamber and being coupled to the chamber to provide structural support to the chamber , wherein the endoskeleton comprises a plurality of coupled support members , wherein the plurality of coupled support members comprises at least a first set of support members having sides that are formed by sheets, wherein each support member of the support members in the first set comprises interior asymmetric tetrahedral structures formed by the sides, wherein each side of the asymmetric tetrahedral structures is in the shape of a non-equilateral triangle.