mhurhangee/ep-ind-claims huggingface dataset:
A method (300, 400) of dose control in three-dimensional X-ray imaging, the method comprising: acquiring (302, 408) at least one image of an object with an X-ray emitter and an X-ray receiver; determining (304, 410) with at least one computer processor a noise level in the at least one image; determining (308, 412) with the at least one computer processor at least one exposure parameter value based upon the noise level; acquiring (316, 418) with the X-ray emitter and X-ray receiver a plurality of projection images of the object using the at least one exposure parameter value; and reconstructing (320, 422) with the at least one computer processor a three-dimensional X-ray image from the plurality of projection images; wherein a user input of image quality is received (306, 402) and the at least one exposure parameter is further determined by the at least one computer processor based upon the user input of image quality; wherein the image quality represents an acceptable noise level in the plurality of projection images; and wherein noise is a function of physical characteristics of the abject and exposure parameters. acquiring (302, 408) at least one image of an object with an X-ray emitter and an X-ray receiver; determining (304, 410) with at least one computer processor a noise level in the at least one image; determining (308, 412) with the at least one computer processor at least one exposure parameter value based upon the noise level; acquiring (316, 418) with the X-ray emitter and X-ray receiver a plurality of projection images of the object using the at least one exposure parameter value; and reconstructing (320, 422) with the at least one computer processor a three-dimensional X-ray image from the plurality of projection images; wherein a user input of image quality is received (306, 402) and the at least one exposure parameter is further determined by the at least one computer processor based upon the user input of image quality; wherein the image quality represents an acceptable noise level in the plurality of projection images; and wherein noise is a function of physical characteristics of the abject and exposure parameters.
A method of creating shadow pages for an address translation map, the address translation map comprising a page directory and a plurality of page tables (204, 204, 204), the page directory comprising a links to the plurality of page tables, each of the page tables comprising links to a plurality of data pages (206, 206, 206, 206), the page directory and page tables each being stored in one of the data pages, the method characterized by further comprising the steps of: for at least one of the plurality of page tables, creating a first shadow page table based on said one of the plurality of page tables, said first shadow page table differing from said first one of the plurality of page tables in at least one of the following respects: at least one entry in said first shadow page table links to a different data page than that entry's corresponding link in said first one of the plurality of page tables; and said first shadow page table contains one or more read-only links whose corresponding links in said first one of the plurality of pages tables are read/write; and creating a shadow page directory based on the page directory, the page directory comprising a link to said one of the plurality of page tables, said shadow page directory comprising a link to said shadow page table instead of the link to said one of said plurality of page tables. for at least one of the plurality of page tables, creating a first shadow page table based on said one of the plurality of page tables, said first shadow page table differing from said first one of the plurality of page tables in at least one of the following respects: at least one entry in said first shadow page table links to a different data page than that entry's corresponding link in said first one of the plurality of page tables; and said first shadow page table contains one or more read-only links whose corresponding links in said first one of the plurality of pages tables are read/write; and at least one entry in said first shadow page table links to a different data page than that entry's corresponding link in said first one of the plurality of page tables; and said first shadow page table contains one or more read-only links whose corresponding links in said first one of the plurality of pages tables are read/write; and creating a shadow page directory based on the page directory, the page directory comprising a link to said one of the plurality of page tables, said shadow page directory comprising a link to said shadow page table instead of the link to said one of said plurality of page tables.
A method of treating contaminated water, the method comprising: (a) adding a first bioreactor influent and a mobile biofilm to a first bioreactor, the first bioreactor influent coming from a first influent source; (b) providing conditions suitable for the mobile biofilm to biochemically transform one or more contaminants in the first bioreactor influent to form a first bioreactor effluent comprising at least the mobile biofilm, water, and residual solid matter; (c) separating, in a liquid-solid separation unit, water from a first portion of the first bioreactor effluent received directly from the first bioreactor to form an underflow and returning the underflow directly to the first bioreactor; (d) isolating, in a solid-solid separation unit, 50% to 100% of the mobile biofilm from a second portion of the first bioreactor effluent received directly from the first bioreactor to form an isolated mobile biofilm stream and a residual solids stream; (e) adding a second bioreactor influent and a portion of the isolated mobile biofilm stream to a second bioreactor (350, 351), the second bioreactor influent coming from a second influent source; (f) providing conditions suitable for the portion of the isolated mobile biofilm stream added to the second bioreactor (350, 351) to biochemically transform one or more contaminants in the second bioreactor influent to form a second bioreactor effluent which includes the isolated mobile biofilm; and (g) delivering the second bioreactor effluent to the first bioreactor. (a) adding a first bioreactor influent and a mobile biofilm to a first bioreactor, the first bioreactor influent coming from a first influent source; (b) providing conditions suitable for the mobile biofilm to biochemically transform one or more contaminants in the first bioreactor influent to form a first bioreactor effluent comprising at least the mobile biofilm, water, and residual solid matter; (c) separating, in a liquid-solid separation unit, water from a first portion of the first bioreactor effluent received directly from the first bioreactor to form an underflow and returning the underflow directly to the first bioreactor; (d) isolating, in a solid-solid separation unit, 50% to 100% of the mobile biofilm from a second portion of the first bioreactor effluent received directly from the first bioreactor to form an isolated mobile biofilm stream and a residual solids stream; (e) adding a second bioreactor influent and a portion of the isolated mobile biofilm stream to a second bioreactor (350, 351), the second bioreactor influent coming from a second influent source; (f) providing conditions suitable for the portion of the isolated mobile biofilm stream added to the second bioreactor (350, 351) to biochemically transform one or more contaminants in the second bioreactor influent to form a second bioreactor effluent which includes the isolated mobile biofilm; and (g) delivering the second bioreactor effluent to the first bioreactor.
A method for configuring a transmission mode, comprising: obtaining a measured value and a preset value, wherein the measured value comprises: a current movement speed of a terminal and current channel correlation of the terminal, wherein the preset value is a value of a channel correlation function, an independent variable of the channel correlation function is a movement speed, and the channel correlation function is a monotone increasing function; the value of the channel correlation function is a function value of the channel correlation function when a value of the independent variable of the channel correlation function is a value of the current movement speed of the terminal; and selecting a data transmission mode according to a result of comparing the measured value and the preset value, wherein the data transmission mode comprises an open-loop mode or a closed-loop mode; wherein the selecting the data transmission mode according to the result of comparing the measured value and the preset value comprises any one of the following: if current channel spatial correlation of the terminal is smaller than the value of the channel correlation function, selecting the open-loop mode to be the data transmission mode; if current channel spatial correlation of the terminal is greater than the value of the channel correlation function, selecting the closed-loop mode to be the data transmission mode. obtaining a measured value and a preset value, wherein the measured value comprises: a current movement speed of a terminal and current channel correlation of the terminal, wherein the preset value is a value of a channel correlation function, an independent variable of the channel correlation function is a movement speed, and the channel correlation function is a monotone increasing function; the value of the channel correlation function is a function value of the channel correlation function when a value of the independent variable of the channel correlation function is a value of the current movement speed of the terminal; and selecting a data transmission mode according to a result of comparing the measured value and the preset value, wherein the data transmission mode comprises an open-loop mode or a closed-loop mode; wherein the selecting the data transmission mode according to the result of comparing the measured value and the preset value comprises any one of the following: if current channel spatial correlation of the terminal is smaller than the value of the channel correlation function, selecting the open-loop mode to be the data transmission mode; if current channel spatial correlation of the terminal is greater than the value of the channel correlation function, selecting the closed-loop mode to be the data transmission mode. if current channel spatial correlation of the terminal is smaller than the value of the channel correlation function, selecting the open-loop mode to be the data transmission mode; if current channel spatial correlation of the terminal is greater than the value of the channel correlation function, selecting the closed-loop mode to be the data transmission mode.
A fuel cell stack assembly comprising: a plurality of fuel cell assemblies adjacent to one another; a first end plate (104; 304; 404) at a first end of the plurality of fuel cell assemblies; a second end plate (108; 308) at a second opposing end of the plurality of fuel cell assemblies; and a tie rod configured to engage the first (104; 304; 404) and second (108; 308) end plates and thereby apply a compression force to the plurality of fuel cell assemblies, wherein the tie rod is a unitary component that comprises a first engagement portion, a second engagement portion and an extending portion between the first engagement portion and the second engagement portion in an axial direction, wherein the extending portion comprises an inner section (213a, 213b) and two outer sections (214a, 216a), wherein the outer sections (214a, 216a) are separated from the inner section (213a, 213b) by the respective engagement portions (214, 216), wherein the engagement portions (214, 216) have a greater cross section than the extending portion, and wherein a first engagement surface that engages with the first end plate (104; 304; 404) is provided on the first engagement portion and a second engagement surface that engages with the second end plate (108; 308) is provided on the second engagement portion. a plurality of fuel cell assemblies adjacent to one another; a first end plate (104; 304; 404) at a first end of the plurality of fuel cell assemblies; a second end plate (108; 308) at a second opposing end of the plurality of fuel cell assemblies; and a tie rod configured to engage the first (104; 304; 404) and second (108; 308) end plates and thereby apply a compression force to the plurality of fuel cell assemblies, wherein the tie rod is a unitary component that comprises a first engagement portion, a second engagement portion and an extending portion between the first engagement portion and the second engagement portion in an axial direction, wherein the extending portion comprises an inner section (213a, 213b) and two outer sections (214a, 216a), wherein the outer sections (214a, 216a) are separated from the inner section (213a, 213b) by the respective engagement portions (214, 216), wherein the engagement portions (214, 216) have a greater cross section than the extending portion, and wherein a first engagement surface that engages with the first end plate (104; 304; 404) is provided on the first engagement portion and a second engagement surface that engages with the second end plate (108; 308) is provided on the second engagement portion.
A pharmaceutical composition for oral administration comprising the fluoroquinolone antibiotic Moxifloxacin as crystalline Moxifloxacin hydrochloride anhydrous, mannitol, a superdisintegrant added both intragranularly and extragranularly and colloidal silicon dioxide added intragranularly in an amount of from 1%wt to 5%wt based on the total weight of the composition.
A method for detecting the presence of a polymeric analyte in a sample comprising: (a) providing a detection chamber comprising the sample and magnetic beads that are coated or derivatized to bind or enhance binding to the polymeric analyte and under conditions that enhance the binding of the analyte to the beads; (b) applying a rotating magnetic field to the mixture in the detection chamber, wherein the detection chamber is approximately at the center of the rotating magnetic field; and (c) detecting the presence of pinwheel formations which pinwheel formations indicate the presence of the polymeric analyte. (a) providing a detection chamber comprising the sample and magnetic beads that are coated or derivatized to bind or enhance binding to the polymeric analyte and under conditions that enhance the binding of the analyte to the beads; (b) applying a rotating magnetic field to the mixture in the detection chamber, wherein the detection chamber is approximately at the center of the rotating magnetic field; and (c) detecting the presence of pinwheel formations which pinwheel formations indicate the presence of the polymeric analyte.
Electric assisted bicycle comprising: - a frame supported by two wheels (13, 14); - an electric motor adapted to drive at least one of the two wheels (13, 14); and - a battery holder mounted on the frame and having an annular side wall which defines an inner housing in the form of a shaft open at the top when the bicycle is in the normal usage position, and which is adapted to receive a vertically inserted removable battery, the inner housing being also open at the bottom, and the side wall supporting internal lateral electrical contacts arranged in the inner housing and adapted to press substantially horizontally against external lateral electrical contacts that are part of said battery in order to supply power to the electric motor when said battery is fitted into place in said inner housing, characterized in that the battery holder has the general shape of a truncated pyramid, the annular side wall being closed and forming four side faces (36, 38) arranged in opposing pairs. - a frame supported by two wheels (13, 14); - an electric motor adapted to drive at least one of the two wheels (13, 14); and - a battery holder mounted on the frame and having an annular side wall which defines an inner housing in the form of a shaft open at the top when the bicycle is in the normal usage position, and which is adapted to receive a vertically inserted removable battery,
A process of preparing a nucleic acid for use in a method of treating a disease in a human, wherein the treatment involves upregulating the expression of a target gene, the process comprising the step of designing and synthesizing a single stranded nucleic acid of between 8 and 40 bases in length, wherein at least one nucleotide of the nucleic acid is a modified nucleotide, the nucleic acid comprising a base sequence complementary to a contiguous sequence of at least 8 bases of a PRC2-binding region of a PRC2-binding long non-coding RNA (IncRNA) that represses expression of the target gene, wherein the PRC2-binding IncRNA is transcribed from the chromosomal locus of the target gene, and wherein the PRC2 binding region has a nucleotide sequence protected from endogenous nucleases during an RNA immunoprecipitation procedure using an antibody to Ezh2.
A manual control element for a machine, in particular a construction machine, comprising - a bearing base, - an operating lever, which is supported projecting upwardly at the bearing base, and - at least two finger-operated switching elements (6a, 6b, 7a, 7b), characterized in that the operating lever comprises a hand grip area and a hand support area for manual operation of the manual control element, the upper edge of the outer surface of the hand support area being curved with a radius of 180 to 260 mm, and its longitudinal axis being oriented at an angle between 60° and 85° to the longitudinal axis of the hand grip area; the longitudinal extension of the hand grip area is between 90 mm and 140 mm along its longitudinal axis; and at least one thumb switching element (6a, 6b) and one index finger switching element (7a, 7b) are arranged underneath the hand support area in a position in which they are operable by the same finger of the operating hand from a position of the operating hand gripping the hand grip area and resting on the hand support area, respectively. - a bearing base, - an operating lever, which is supported projecting upwardly at the bearing base, and - at least two finger-operated switching elements (6a, 6b, 7a, 7b),
Method for purifying an olefinic feedstock that comprises olefins with 4 carbon atoms and impurities including isobutanal, ethanol, and acetone, where said method comprises: a) A pretreatment step that comprises at least one acetone elimination step; and b) A step for simultaneously eliminating isobutanal and ethanol by running the pretreated feedstock obtained from Step a) over at least one fixed bed with at least one adsorbent that comprises at least one porous refractory oxide-based material, where said Step b) operates at a temperature of between 0 and 200°C, at a pressure of 0.1 to 10 MPa, and with an hourly volumetric flow rate of the pretreated feedstock obtained from Step a) over the fixed bed of between 0.1 and 10 h -1. a) A pretreatment step that comprises at least one acetone elimination step; and b) A step for simultaneously eliminating isobutanal and ethanol by running the pretreated feedstock obtained from Step a) over at least one fixed bed with at least one adsorbent that comprises at least one porous refractory oxide-based material,
A hydrolyzed divinylbenzene dioxide resin composition comprising the reaction product of (a) a mixture of meta and para divinylbenzene dioxide in a range of from 9:1 to 1:9 of meta isomer to para isomer, and (b) water; wherein the reaction product formed comprises at least a partially hydrolyzed divinylbenzene dioxide resin composition.
A thermoplastic resin expanded bead comprising a thermoplastic resin foam layer, wherein the expanded bead has a columnar shape and has two or more and eight or less through-holes penetrating in an axial direction of the expanded bead, a ratio Ct/A of a total cross-sectional area Ct of the through-holes, which is determined as specified in the description, to a cross-sectional area A of the expanded bead, which is determined as specified in the description, in a cut surface obtained by cutting the expanded bead perpendicularly to the axial direction at a center of the expanded bead in the axial direction is 0.02 or more and 0.15 or less, wherein a hole diameter d of the through-hole, which is determined as specified in the description, is 0.1 mm or more and 0.5 mm or less in the cut surface obtained by cutting the expanded bead perpendicularly to the axial direction at the center of the expanded bead in the axial direction. the expanded bead has a columnar shape and has two or more and eight or less through-holes penetrating in an axial direction of the expanded bead, a ratio Ct/A of a total cross-sectional area Ct of the through-holes, which is determined as specified in the description, to a cross-sectional area A of the expanded bead, which is determined as specified in the description, in a cut surface obtained by cutting the expanded bead perpendicularly to the axial direction at a center of the expanded bead in the axial direction is 0.02 or more and 0.15 or less, wherein a hole diameter d of the through-hole, which is determined as specified in the description, is 0.1 mm or more and 0.5 mm or less in the cut surface obtained by cutting the expanded bead perpendicularly to the axial direction at the center of the expanded bead in the axial direction.
A surface type heating element comprising: a substrate; a buffer layer disposed on the substrate and having a thermal expansion coefficient of (50 to 100) ∗ 10 -7 m/°C; and a surface type heating element layer disposed on the buffer layer and including a NiCr alloy, characterised in that the buffer layer includes glass frit, and the glass frit includes SiO 2 at 60 to 70 wt%, B 2 O 3 at 15 to 25 wt%, Al 2 O 3 at 1 to 10 wt%, an alkali oxide at 10 wt% or less, excluding 0%, and BaO at 1 to 5 wt%. a substrate; a buffer layer disposed on the substrate and having a thermal expansion coefficient of (50 to 100) ∗ 10 -7 m/°C; and a surface type heating element layer disposed on the buffer layer and including a NiCr alloy, characterised in that the buffer layer includes glass frit, and the glass frit includes SiO 2 at 60 to 70 wt%, B 2 O 3 at 15 to 25 wt%, Al 2 O 3 at 1 to 10 wt%, an alkali oxide at 10 wt% or less, excluding 0%, and BaO at 1 to 5 wt%.
A vehicle for transporting a liquid/solid load, in particular grapes, comprising a rolling chassis and a tilting bucket carried by the rolling chassis, said bucket being a bucket tilting between two extreme positions, one, called first position, corresponding to the load storage position of the bucket, the other, called second position, corresponding to the load emptying position of the bucket, characterized in that the rolling chassis is equipped with one or several liquid recovery tanks, in that the bucket is independent in tilting movement from the tank(s) equipping the rolling chassis, and in that the vehicle comprises connecting means configured to allow the connection of the, or at least one of the, preferably each, tank(s) equipping the rolling chassis to the bucket by a fluid connection at least in the first load storage position of the bucket.