mhurhangee/patent-ind-claim-en huggingface dataset:
A stable oral pharmaceutical formulation comprising: 15-16% by weight of omarigliptin; 77-82% by weight of a non-reducible sugar diluent or mixture of non-reducible sugar diluents, wherein the non-reducible sugar diluent or mixture of non-reducible sugar diluents are selected from the group consisting of sucrose, mannitol, microcrystalline cellulose, xylitol, maltitol, lactitol, starch, hydroxypropylcellulose (HPC) and sorbitol; 2% by weight of a disintegrant, wherein the disintegrant is a polycarboxylic acid and 2.5% by weight of a lubricant. 15-16% by weight of omarigliptin; 77-82% by weight of a non-reducible sugar diluent or mixture of non-reducible sugar diluents, wherein the non-reducible sugar diluent or mixture of non-reducible sugar diluents are selected from the group consisting of sucrose, mannitol, microcrystalline cellulose, xylitol, maltitol, lactitol, starch, hydroxypropylcellulose (HPC) and sorbitol; 2% by weight of a disintegrant, wherein the disintegrant is a polycarboxylic acid and 2.5% by weight of a lubricant.
Process for treating a natural gas G comprising carbon dioxide, methane and paraffins, so as to obtain a gas stream enriched with methane M, a liquid stream enriched with carbon dioxide D and a liquid stream enriched with paraffins P, said process comprising the following steps: a) introducing the natural gas G into a deparaffinizing column , b) extracting the paraffins from the natural gas G in the deparaffinizing column , and recovering a top vapour stream comprising carbon dioxide and methane, at the column top, and said liquid stream enriched with paraffins P at the column bottom, c) cooling the top vapour stream then introducing it into a separation unit , d) recovering a liquid stream and a vapour stream, e) introducing all or part of the liquid stream, as reflux liquid, at the top of the deparaffinizing column so as to wash, in countercurrent mode, the natural gas G introduced in step a), f) cooling then expanding the vapour stream recovered in step d) so as to obtain a condensed stream FC and a gas stream enriched with methane M1, g) introducing the condensed stream FC into a distillation column so as to recover, at the top of the column, a gas stream enriched with methane M2 and, at the column bottom, said liquid stream enriched with carbon dioxide D, h) mixing the gas stream enriched with methane M1 and the gas stream enriched with methane M2 so as to obtain said gas stream enriched with methane M, i) reheating a part of the liquid stream enriched with carbon dioxide D and introducing the resulting reheated stream into the distillation column , in which the cooling of the top vapour stream in step c) and the reheating of the part of the liquid stream enriched with carbon dioxide D in step i) are carried out by passing said top vapour stream and said part of the liquid stream enriched with carbon dioxide D through a thermal coupling heat exchanger . a) introducing the natural gas G into a deparaffinizing column , b) extracting the paraffins from the natural gas G in the deparaffinizing column , and recovering a top vapour stream comprising carbon dioxide and methane, at the column top, and said liquid stream enriched with paraffins P at the column bottom, c) cooling the top vapour stream then introducing it into a separation unit , d) recovering a liquid stream and a vapour stream, e) introducing all or part of the liquid stream, as reflux liquid, at the top of the deparaffinizing column so as to wash, in countercurrent mode, the natural gas G introduced in step a), f) cooling then expanding the vapour stream recovered in step d) so as to obtain a condensed stream FC and a gas stream enriched with methane M1, g) introducing the condensed stream FC into a distillation column so as to recover, at the top of the column, a gas stream enriched with methane M2 and, at the column bottom, said liquid stream enriched with carbon dioxide D, h) mixing the gas stream enriched with methane M1 and the gas stream enriched with methane M2 so as to obtain said gas stream enriched with methane M, i) reheating a part of the liquid stream enriched with carbon dioxide D and introducing the resulting reheated stream into the distillation column ,
A urinary catheter comprising: a first end opposite a second end defining a longitudinal axis therebetween, the first end being for the advancement through urethral canal; a tubular body extending from the first end to the second end having an outer surface and an inner surface defining a urine draining lumen adapted for draining urine from a bladder and wherein the urinary catheter can be deployed without a solid structure moving through the lumen when the tubular body is inserted into the bladder characterized by a first section of the inner surface proximate the first end that is circular in cross section; a second section of the inner surface that is non-circular in cross section; wherein the second section is farther from the first end than the first section of the inner surface ; and a plurality of longitudinal, convex channels formed in the second section extending towards the second end from a first plane orthogonal to the longitudinal axis (X); wherein the first section is located on one side of the first plane opposite the second section located on the other side of the first plane, wherein the outermost portion of each channel being at the same radial distance relative to a circular profile of the inner surface of the first section , wherein the convex channels extend inwardly towards the longitudinal axis (X) such that their end points are radially closer to the longitudinal axis (X) than their outermost points , wherein the outermost points of each channel is radially coplanar with the inner surface of the first section .
Sheet, with a uniform thickness of between 0.20 mm and 6 mm, for a reinforcing or structural part of a car body, consisting of an aluminium alloy of the following composition, in weight per cent: Si: 10 - 14, Mg: 0.05 - 0.8, Cu: 0 - 0.2, Fe: 0 - 0.5, Mn: 0 - 0.5, optionally at least one element selected from Na, Ca, Sr, Ba, Yt and Li, the quantity of said element if selected being between 0.01 and 0.05 for Na, Ca, Sr, Ba and Yt and between 0.1 and 0.3 for Li, Sb: 0 - 0.05, Cr: 0 - 0.1, Ti: 0 - 0.2, other elements < 0.05 each and < 0.15 total, remainder aluminium, characterised in that the sheet is in T4 temper. Si: 10 - 14, Mg: 0.05 - 0.8, Cu: 0 - 0.2, Fe: 0 - 0.5, Mn: 0 - 0.5, optionally at least one element selected from Na, Ca, Sr, Ba, Yt and Li, the quantity of said element if selected being between 0.01 and 0.05 for Na, Ca, Sr, Ba and Yt and between 0.1 and 0.3 for Li, Sb: 0 - 0.05, Cr: 0 - 0.1, Ti: 0 - 0.2, other elements < 0.05 each and < 0.15 total, remainder aluminium, characterised in that the sheet is in T4 temper.
A composition comprising: 20 to 80 wt% of an organic polymer, where the organic polymer is a polycarbonate; 0.1 to 30 wt% of flame retardant that comprises a phosphorus containing flame retardant and/or a nitrogen containing flame retardant; and 0.1 to 50 wt% of calcium sulfate. 20 to 80 wt% of an organic polymer, where the organic polymer is a polycarbonate; 0.1 to 30 wt% of flame retardant that comprises a phosphorus containing flame retardant and/or a nitrogen containing flame retardant; and 0.1 to 50 wt% of calcium sulfate.
A method for converting imaging data to three-dimensional printer input data, the method comprising: receiving imaging data describing a three-dimensional volume of a subject and printer definition data , wherein the printer definition data describes a particular three-dimensional printer and printer settings for a particular print job; segmenting the imaging data to produce one or more masks, each mask representing an object to be printed ; evaluating the printability and quality of the one or more masks ; curing any problems detected during the evaluation according to the printer definition data by adjusting the one or more masks ; and converting the one or more masks into , three-dimensional printer input data describing at least part of the three-dimensional volume . receiving imaging data describing a three-dimensional volume of a subject and printer definition data , wherein the printer definition data describes a particular three-dimensional printer and printer settings for a particular print job; segmenting the imaging data to produce one or more masks, each mask representing an object to be printed ; evaluating the printability and quality of the one or more masks ; curing any problems detected during the evaluation according to the printer definition data by adjusting the one or more masks ; and converting the one or more masks into , three-dimensional printer input data describing at least part of the three-dimensional volume .
A flexible high pressure fluid cleaning lance drive apparatus comprising: a housing ; at least one drive motor disposed in a first portion of the housing , the drive motor having a drive axle projecting across a second portion of the housing carrying a cylindrical spline drive roller ; a plurality of cylindrical guide rollers on fixed axles spanning across the second portion of the housing aligned parallel to the spline drive roller , and wherein a side surface of each guide roller and the at least one spline drive roller is tangent to a common plane between the rollers; an endless belt wrapped around the at least one spline drive roller and the guide rollers , the belt having a transverse splined inner surface having splines shaped complementary to splines on the spline drive roller ; and a bias member supporting a plurality of follower rollers each aligned vertically above one of either the at least one spline drive roller or one of the guide rollers , wherein the bias member is operable to press each follower roller toward one of either the at least one spline drive roller or one of the guide rollers to frictionally grip a flexible lance hose when sandwiched between the follower rollers and the endless belt . a housing ; at least one drive motor disposed in a first portion of the housing , the drive motor having a drive axle projecting across a second portion of the housing carrying a cylindrical spline drive roller ; a plurality of cylindrical guide rollers on fixed axles spanning across the second portion of the housing aligned parallel to the spline drive roller , and wherein a side surface of each guide roller and the at least one spline drive roller is tangent to a common plane between the rollers; an endless belt wrapped around the at least one spline drive roller and the guide rollers , the belt having a transverse splined inner surface having splines shaped complementary to splines on the spline drive roller ; and a bias member supporting a plurality of follower rollers each aligned vertically above one of either the at least one spline drive roller or one of the guide rollers , wherein the bias member is operable to press each follower roller toward one of either the at least one spline drive roller or one of the guide rollers to frictionally grip a flexible lance hose when sandwiched between the follower rollers and the endless belt .
A polymer foam composition comprising: a polymer-based foam matrix; and a mineral nucleating agent within a cell of the polymer-based foam matrix, wherein the mineral nucleating agent comprises an alkaline earth metal silicate, wherein the alkaline earth metal silicate comprises calcium silicate, and wherein the alkaline earth metal silicate is present in an amount in a range from 1% by weight to 30% by weight of the polymer foam, wherein the polymer-based foam matrix comprises at least one of a polystyrene matrix, polypropylene matrix, polyurethane matrix, poly(ethyl vinyl acetate) matrix, polyethylene terephthalate matrix, or copolymer matrices thereof. a polymer-based foam matrix; and a mineral nucleating agent within a cell of the polymer-based foam matrix, wherein the mineral nucleating agent comprises an alkaline earth metal silicate, wherein the alkaline earth metal silicate comprises calcium silicate, and wherein the alkaline earth metal silicate is present in an amount in a range from 1% by weight to 30% by weight of the polymer foam, wherein the polymer-based foam matrix comprises at least one of a polystyrene matrix, polypropylene matrix, polyurethane matrix, poly(ethyl vinyl acetate) matrix, polyethylene terephthalate matrix, or copolymer matrices thereof.
A method for testing compatibility between the energy requirements of an electrically stand-alone home-automation device and a predefined site for installing a photovoltaic module , the electrically stand-alone home-automation device comprising the photovoltaic module, a device that closes, occults, protects from the sun or screens and an element for storing electrical energy that is configured to supply the device that closes, occults, protects from the sun or screens with power, the element for storing electrical energy being connected to the photovoltaic module and intended to be charged by the electrical energy generated by the photovoltaic module , the method being characterized in that it comprises at least: - A step (Etp1) of selecting the electrically stand-alone home-automation device and storing, in a memory, data identifying the electrically stand-alone home-automation device , - A step (Etp2) of obtaining, via acquisition or via input, and storing, in a memory, position data relating to the predefined site, the position data comprising at least data on the location and on the orientation of the predefined site, - A step (Etp3) of estimating and storing, in a memory, data of a sun chart at the predefined site, - A step (Etp5) of computing an estimation of the variation in the amplitude of the solar radiation received at the predefined site over a year while taking into account the position of the predefined site and the shadow mask, - A step (Etp6) of computing an energy balance on the basis of the variation in the amplitude of the solar radiation received at the predefined site and of the energy requirements of the selected electrically stand-alone home-automation device . - A step (Etp1) of selecting the electrically stand-alone home-automation device and storing, in a memory, data identifying the electrically stand-alone home-automation device , - A step (Etp2) of obtaining, via acquisition or via input, and storing, in a memory, position data relating to the predefined site, the position data comprising at least data on the location and on the orientation of the predefined site, - A step (Etp3) of estimating and storing, in a memory, data of a sun chart at the predefined site, - A step (Etp5) of computing an estimation of the variation in the amplitude of the solar radiation received at the predefined site over a year while taking into account the position of the predefined site and the shadow mask, - A step (Etp6) of computing an energy balance on the basis of the variation in the amplitude of the solar radiation received at the predefined site and of the energy requirements of the selected electrically stand-alone home-automation device .
A computer-based method of evaluating a radiation therapy treatment plan arranged to be used in a radiation therapy apparatus for a treatment volume of a body having a target volume and one or more organs at risk, OAR, the treatment volume comprising a plurality of sub-volumes, wherein the method comprises: - obtaining (S100) a radiation therapy treatment plan for the treatment volume, the radiation therapy treatment plan comprising a dose distribution for radiation treatment with the radiation therapy apparatus for the treatment volume of the body having the target volume and the OAR; - calculating (S102) the linear energy transfer, LET, in each sub-volume based on the dose distribution to obtain an LET distribution over the treatment volume; - dividing (S104) the dose distribution into doses of a first category and a second category in each sub-volume, wherein the first category comprises doses with energy depositions with an LET below a first LET threshold and the second category comprises doses with energy depositions with an LET above a second LET threshold; - determining (S106) amounts of doses of the first and of the second category in each sub-volume to obtain a distribution of doses of the first and of the second category over the treatment volume; and - performing (S108) an analysis of the quality of the radiation therapy treatment plan by metrics based on the obtained distribution of doses of the first and of the second category in the target volume and in the OAR. - obtaining (S100) a radiation therapy treatment plan for the treatment volume, the radiation therapy treatment plan comprising a dose distribution for radiation treatment with the radiation therapy apparatus for the treatment volume of the body having the target volume and the OAR; - calculating (S102) the linear energy transfer, LET, in each sub-volume based on the dose distribution to obtain an LET distribution over the treatment volume; - dividing (S104) the dose distribution into doses of a first category and a second category in each sub-volume, wherein the first category comprises doses with energy depositions with an LET below a first LET threshold and the second category comprises doses with energy depositions with an LET above a second LET threshold; - determining (S106) amounts of doses of the first and of the second category in each sub-volume to obtain a distribution of doses of the first and of the second category over the treatment volume; and - performing (S108) an analysis of the quality of the radiation therapy treatment plan by metrics based on the obtained distribution of doses of the first and of the second category in the target volume and in the OAR.
An image forming apparatus, comprising: a cartridge (B) including a portion-to-be-positioned ; and an apparatus main body (A) on which the cartridge (B) is mounted in a mounting direction, the apparatus main body (A) including a positioning portion and a regulating portion , the positioning portion being configured to position the cartridge in a direction orthogonal to the mounting direction by engaging with the portion-to-be-positioned of the cartridge when mounting of the cartridge on the apparatus main body is completed, the regulating portion being provided on an upstream side of the positioning portion in the mounting direction, wherein the cartridge (B) includes a portion-to-be-regulated provided on an upstream side of the portion-to-be-positioned in the mounting direction, wherein the portion-to-be-positioned of the cartridge engages with the regulating portion of the apparatus main body before engaging with the positioning portion of the apparatus main body, to regulate movement of the cartridge in the direction orthogonal to the mounting direction, and wherein the portion-to-be-regulated of the cartridge engages with the regulating portion before the portion-to-be-positioned engages with the positioning portion of the apparatus main body, to regulate movement of the cartridge in the direction orthogonal to the mounting direction. a cartridge (B) including a portion-to-be-positioned ; and an apparatus main body (A) on which the cartridge (B) is mounted in a mounting direction, the apparatus main body (A) including a positioning portion and a regulating portion , the positioning portion being configured to position the cartridge in a direction orthogonal to the mounting direction by engaging with the portion-to-be-positioned of the cartridge when mounting of the cartridge on the apparatus main body is completed, the regulating portion being provided on an upstream side of the positioning portion in the mounting direction, wherein the cartridge (B) includes a portion-to-be-regulated provided on an upstream side of the portion-to-be-positioned in the mounting direction, wherein the portion-to-be-positioned of the cartridge engages with the regulating portion of the apparatus main body before engaging with the positioning portion of the apparatus main body, to regulate movement of the cartridge in the direction orthogonal to the mounting direction, and wherein the portion-to-be-regulated of the cartridge engages with the regulating portion before the portion-to-be-positioned engages with the positioning portion of the apparatus main body, to regulate movement of the cartridge in the direction orthogonal to the mounting direction.
A spray applicator for topical treatment, the spray applicator comprising a container comprising a treatment liquid under pressure and a propellant , wherein the container is in fluid connection with a spray valve system for application of at least part of the treatment liquid on a topical area, wherein the treatment liquid comprises an acid, wherein the spray applicator further comprises a distance holder configured to arrange on a topical area and comprising an opening configured to enclose a topical lesion, wherein the spray applicator is configured to spray the treatment liquid through the opening in the distance holder , wherein the spray applicator is configured to provide a spray having a spray angle (θ) wherein 90% of a spray dose escapes from an outlet of the spray valve system , wherein the spray angle (θ) is in the range of 15-45°.
A display apparatus comprising: a display panel ; an illuminance sensor ; an infrared sensor ; and a controller , characterized in that the controller is configured to: determine that a touch of a user is input in response to an output of the illuminance sensor being less than or equal to a first reference value and an output of the infrared sensor being greater than or equal to a second reference value, determine an action of the user corresponding to a combination of the output of the illuminance sensor and the output of the infrared sensor in response to determining that the touch of the user is input, and perform an operation corresponding to the action of the user. a display panel ; an illuminance sensor ; an infrared sensor ; and a controller , characterized in that the controller is configured to: determine that a touch of a user is input in response to an output of the illuminance sensor being less than or equal to a first reference value and an output of the infrared sensor being greater than or equal to a second reference value, determine an action of the user corresponding to a combination of the output of the illuminance sensor and the output of the infrared sensor in response to determining that the touch of the user is input, and perform an operation corresponding to the action of the user. determine that a touch of a user is input in response to an output of the illuminance sensor being less than or equal to a first reference value and an output of the infrared sensor being greater than or equal to a second reference value, determine an action of the user corresponding to a combination of the output of the illuminance sensor and the output of the infrared sensor in response to determining that the touch of the user is input, and perform an operation corresponding to the action of the user.