mhurhangee/ep-ind-claims huggingface dataset:
An engine control unit to control an internal combustion engine equipped with a variable valve timing mechanism that can vary the opening timing or the closing timing of an intake valve and alter the actual compression ratio of a cylinder, wherein the engine control unit sets an upper limit on the opening degree of a throttle valve lower in a situation where the actual compression ratio of the cylinder is high than the upper limit on the opening degree of the throttle valve in a situation where the actual compression ratio of the cylinder is low, the engine control unit amends fuel injection amount to be increased so that the air-fuel ratio of a mixture gets rich or temporarily stops fuel injection when the current opening degree of the throttle valve is over the upper limit and besides the difference between the current opening degree of the throttle valve and the upper limit is enlarged to be greater than or equal to a predetermined value; wherein the engine control unit amends fuel injection amount to be increased when the current opening degree of the throttle valve is over the upper limit and besides the difference between the current opening degree of the throttle valve and the upper limit is less than a threshold, the engine control unit temporarily stops fuel injection when the current opening degree of the throttle valve is over the upper limit and besides the difference is greater than or equal to the threshold.
A stator vane, a plurality of such stator vanes arranged around an axis forming a turbine nozzle, comprising: an airfoil section elongated in a radial direction relative to the axis; an outer band section continuous to an outer end of the airfoil section and bent in a circumferential direction relative to the axis; a first hook section continuous to a leading end in the axial direction of the outer band section and bent outward in the radial direction; a second hook section continuous to a trailing end in the axial direction of the outer band section and bent outward in the radial direction; an inner band section continuous to an inner end of the airfoil section and bent in the circumferential direction; a flange section continuous to an end in the axial direction of the inner band section and bent inward in the radial direction; and a reinforcement fiber fabric continuous throughout the airfoil section, the outer band section, the first hook section, the second hook section, the inner band section and the flange section and unitized with a ceramic, characterized by further comprising: a cutout ranging from a leading edge in the axial direction of the airfoil section to the leading end of the outer band. an airfoil section elongated in a radial direction relative to the axis; an outer band section continuous to an outer end of the airfoil section and bent in a circumferential direction relative to the axis; a first hook section continuous to a leading end in the axial direction of the outer band section and bent outward in the radial direction; a second hook section continuous to a trailing end in the axial direction of the outer band section and bent outward in the radial direction; an inner band section continuous to an inner end of the airfoil section and bent in the circumferential direction; a flange section continuous to an end in the axial direction of the inner band section and bent inward in the radial direction; and a reinforcement fiber fabric continuous throughout the airfoil section, the outer band section, the first hook section, the second hook section, the inner band section and the flange section and unitized with a ceramic, a cutout ranging from a leading edge in the axial direction of the airfoil section to the leading end of the outer band.
Antenna assembly with a printed circuit board having an upper side and lower side, and an antenna (20, 24, 24') carried by the circuit board which comprises at least one electrically conductive antenna section, characterized in that a first antenna section is arranged on a first narrow side of the circuit board adjoining the upper side and/or the lower side, wherein the first narrow side bounds a hole of the circuit board and the first antenna section is arranged only in a portion of the narrow side bounding the hole without forming a closed ring in the plane of the circuit board within the hole, the first narrow side is formed by a cantilevered section of the circuit board which comprises a second narrow side opposite the first narrow side forming an outside of the circuit board, wherein a second antenna section is arranged at the second narrow side, and the first antenna section and the second antenna section, together with antenna sections (24, 24') arranged on the upper side and lower side of the cantilevered section, form an annular antenna transverse to the plane of the circuit board.
Method for installing a drain, wherein the drain comprises: - a cup with a fluid outlet to be connected to a conduit, wherein the cup accommodates a water trap, the cup further comprising an axial channel along the circumference, the channel being open upwards and limited by a bottom, a channel wall and a cup wall; - a circumferential drain wall adapted to fit into the channel, whereby the drain wall is arranged axially movable in the channel; and - a casting framework arranged releasable around the outer circumference of the drain wall, the framework having a radial extension, wherein the drain wall has an outward radial flange at an upper end, the radial extension of the flange being equal or less than the radial extension of the framework, wherein the method comprises the following consecutive steps: a. arranging the cup at the desired place for the drain, and connecting the outlet to a conduit, b. inserting the drain wall into the axial channel, the wall protrudes above the expected level of the floor, c. arranging the framework around the circumference of the drain wall; and d. casting the floor, characterized in that the method further comprises the steps of: e. sliding down the drain wall until a lower part of the radial extension of the framework is below the surface of the casted floor, f. once the floor is cured, removing the framework from the drain wall, the framework will leave a circumferential recess in the casted floor; and g. moving the drain wall axially into the axial channel until the radial flange of the drain wall rests upon the circumferential recess. - a cup with a fluid outlet to be connected to a conduit, wherein the cup accommodates a water trap, the cup further comprising an axial channel along the circumference, the channel being open upwards and limited by a bottom, a channel wall and a cup wall; - a circumferential drain wall adapted to fit into the channel, whereby the drain wall is arranged axially movable in the channel; and - a casting framework arranged releasable around the outer circumference of the drain wall, the framework having a radial extension, wherein the drain wall has an outward radial flange at an upper end, the radial extension of the flange being equal or less than the radial extension of the framework, a. arranging the cup at the desired place for the drain, and connecting the outlet to a conduit, b. inserting the drain wall into the axial channel, the wall protrudes above the expected level of the floor, c. arranging the framework around the circumference of the drain wall; and d. casting the floor, e. sliding down the drain wall until a lower part of the radial extension of the framework is below the surface of the casted floor, f. once the floor is cured, removing the framework from the drain wall, the framework will leave a circumferential recess in the casted floor; and g. moving the drain wall axially into the axial channel until the radial flange of the drain wall rests upon the circumferential recess.
A dynamic characteristic measurement device comprising: a base; a support part (120, 124) placed above the base so as to be capable of floating via an elastic body; an electrodynamic vibrator provided on the base side of an object under test mounted between the base and the support part (120, 124) and configured to vibrate the object under test; and a dynamic load measuring instrument provided on the support part (120, 124) side of the object under test and configured to measure a dynamic load applied to the object under test, wherein the shape of the support part is such that a resonant frequency of the support part is at least 3 kHz, and the dynamic characteristic measurement device further includes a static load measuring instrument attached to the electrodynamic vibrator and configured to measure a static load applied to the object under test. a base; a support part (120, 124) placed above the base so as to be capable of floating via an elastic body; an electrodynamic vibrator provided on the base side of an object under test mounted between the base and the support part (120, 124) and configured to vibrate the object under test; and a dynamic load measuring instrument provided on the support part (120, 124) side of the object under test and configured to measure a dynamic load applied to the object under test, wherein the shape of the support part is such that a resonant frequency of the support part is at least 3 kHz, and the dynamic characteristic measurement device further includes a static load measuring instrument attached to the electrodynamic vibrator and configured to measure a static load applied to the object under test.
A method for producing an aqueous foam comprising the following steps of: (a) preparing a solution comprising at least one surfactant and at least one protic polar solvent, the protic polar solvent or one of the protic polar solvents being water, (b) contacting the solution prepared in step (a) with a pressurised gas, whereby a two-phase mixture is obtained, and (c) injecting the two-phase mixture obtained in step (b), whereby, after expansion or dispersion of the gas, the aqueous foam is obtained, characterised in that the solution further comprises at least one nitrogenous polysaccharide and at least one gelling compound chosen from a non-nitrogenous polysaccharide and gelatine. (a) preparing a solution comprising at least one surfactant and at least one protic polar solvent, the protic polar solvent or one of the protic polar solvents being water, (b) contacting the solution prepared in step (a) with a pressurised gas, whereby a two-phase mixture is obtained, and (c) injecting the two-phase mixture obtained in step (b), whereby, after expansion or dispersion of the gas, the aqueous foam is obtained,
A carboxylate ligand modified ferric iron oxo-hydroxide composition for use in the treatment or prevention of iron deficiency associated with non-alcoholic fatty liver disease (NAFLD) or non-alcoholic steatohepatitis (NASH) in a subject, wherein the carboxylate ligand modified ferric iron oxo-hydroxide has a three dimensional polymeric structure in which the carboxylate ligands are non-stoichiometrically substituted for the oxo or hydroxy groups of the ferric iron oxo-hydroxide so that some of the ligand integrates into the solid phase by formal metal-ligand bonding and/or wherein the three dimensional polymeric structure of the carboxylate ligand modified ferric iron oxo-hydroxide is such that the substitution of the oxo or hydroxy groups by the carboxylate ligands is substantially random.
A fusion polypeptide for the quantification of a target polypeptide by mass spectroscopy, wherein: said fusion polypeptide consists of 35-455 amino acid residues and comprises (i) a target region, which is a fragment of the target polypeptide, and (ii) a tag region, which is not a fragment of the target polypeptide; said target region consists of 15-205 amino acid residues and comprises at least two signature regions; said tag region consists of 20-250 amino acid residues and comprises at least two signature regions; each signature region has the structure Y-Z-X 4-28 -Y-Z, all Y:s are selected from one of (i)-(iv), wherein (i) is R or K, (ii) is Y, F, W or L, (iii) is E and (iv) is D and each X and each Z are independently any amino acid residue, provided that the Z:s are not P if the Y:s are selected from (i)-(iii); each signature region comprises at least one amino acid residue comprising a heavy isotope; said tag region consists of Albumin Binding Protein or a fragment thereof; and the same Y residue may constitute the carboxylic end of a first signature region and the amino end of a second signature region. said fusion polypeptide consists of 35-455 amino acid residues and comprises (i) a target region, which is a fragment of the target polypeptide, and (ii) a tag region, which is not a fragment of the target polypeptide; said target region consists of 15-205 amino acid residues and comprises at least two signature regions; said tag region consists of 20-250 amino acid residues and comprises at least two signature regions; each signature region has the structure Y-Z-X 4-28 -Y-Z, all Y:s are selected from one of (i)-(iv), wherein (i) is R or K, (ii) is Y, F, W or L, (iii) is E and (iv) is D and each X and each Z are independently any amino acid residue, provided that the Z:s are not P if the Y:s are selected from (i)-(iii); each signature region comprises at least one amino acid residue comprising a heavy isotope; said tag region consists of Albumin Binding Protein or a fragment thereof; and the same Y residue may constitute the carboxylic end of a first signature region and the amino end of a second signature region.
An electrostatic ink composition comprising: (a) a carrier liquid; (b) particles comprising: (i) a polymer having a melt flow rate of less than 60 g/10 minutes, measured according to ASTM D1238-04c (ii) a first colorant and a second colorant wherein the first colorant comprises a black colorant and the second colorant comprises a non-black colorant and wherein the second colorant is selected from the group consisting of a phthalocyanine colorant, an indigold colorant, an indanthrone colorant, a monoazo colorant, a diazo colorant, inorganic salts and complexes, dioxazine colorant, perylene colorant, anthraquinone colorants, and any combination thereof, (c) a charge director, wherein the electrostatic ink composition excludes a positively charged organic molecule or an organic molecule capable of becoming a positively charged organic molecule during an electrostatic printing process. (a) a carrier liquid; (b) particles comprising: (i) a polymer having a melt flow rate of less than 60 g/10 minutes, measured according to ASTM D1238-04c (ii) a first colorant and a second colorant wherein the first colorant comprises a black colorant and the second colorant comprises a non-black colorant and wherein the second colorant is selected from the group consisting of a phthalocyanine colorant, an indigold colorant, an indanthrone colorant, a monoazo colorant, a diazo colorant, inorganic salts and complexes, dioxazine colorant, perylene colorant, anthraquinone colorants, and any combination thereof, (i) a polymer having a melt flow rate of less than 60 g/10 minutes, measured according to ASTM D1238-04c (ii) a first colorant and a second colorant wherein the first colorant comprises a black colorant and the second colorant comprises a non-black colorant and wherein the second colorant is selected from the group consisting of a phthalocyanine colorant, an indigold colorant, an indanthrone colorant, a monoazo colorant, a diazo colorant, inorganic salts and complexes, dioxazine colorant, perylene colorant, anthraquinone colorants, and any combination thereof, (c) a charge director,
A luminaire comprising: a cover plate including a light exit window and a region surrounding the light exit window; a reflector comprising at least one edge; and a plurality of solid state lighting elements within an inner volume delimited by the reflector and the cover plate, wherein the solid state lighting elements are arranged to direct their luminous output towards the light exit window, at least a part of said region comprises a plurality of protrusions as first fixing members, characterized in that the edge comprises a plurality of holes as second fixing members; wherein the protrusions extend through the holes, each protrusion having a portion extending beyond the opening through which the protrusion extends, said portion being bent over an edge of the opening to secure the reflector on the cover plate, further characterized in that the region comprises a rim around the light exit window that is angled to a main surface of the cover plate, the protrusions extending from the rim. a cover plate including a light exit window and a region surrounding the light exit window; a reflector comprising at least one edge; and a plurality of solid state lighting elements within an inner volume delimited by the reflector and the cover plate, wherein the solid state lighting elements are arranged to direct their luminous output towards the light exit window, at least a part of said region comprises a plurality of protrusions as first fixing members, characterized in that the edge comprises a plurality of holes as second fixing members; a reflector comprising at least one edge; and a plurality of solid state lighting elements within an inner volume delimited by the reflector and the cover plate, wherein the solid state lighting elements are arranged to direct their luminous output towards the light exit window, at least a part of said region comprises a plurality of protrusions as first fixing members, characterized in that the edge comprises a plurality of holes as second fixing members; wherein the protrusions extend through the holes, each protrusion having a portion extending beyond the opening through which the protrusion extends, said portion being bent over an edge of the opening to secure the reflector on the cover plate, further characterized in that the region comprises a rim around the light exit window that is angled to a main surface of the cover plate, the protrusions extending from the rim.
A method for reconstructing at least a first and a second independently moving body from one 3D tomography scan data acquisition, comprising: - performing a movement of the first body relative to the second body, - obtaining a digital representation of the movement, - obtaining a 3D tomography scan of the first body and the second body during the movement, and - reconstructing a first 3D model of the first body and a second 3D model of the second body by applying the obtained movement to the 3D tomography scan. - performing a movement of the first body relative to the second body, - obtaining a digital representation of the movement, - obtaining a 3D tomography scan of the first body and the second body during the movement, and - reconstructing a first 3D model of the first body and a second 3D model of the second body by applying the obtained movement to the 3D tomography scan.
A method of determining the internal cross-sectional area of a pipe along its length, the method including the steps of: (a) filling the pipe with a first fluid; (b) feeding a second fluid into the pipe at a known flow rate, a meniscus being formed between the first and the second fluid, and the meniscus moving along the pipe as the second fluid displaces the first fluid in the pipe; (c) ultrasonically detecting the position of the meniscus as it moves along the pipe; and (d) determining from the second fluid flow rate and the meniscus position, the internal cross-sectional area of the pipe along its length. (a) filling the pipe with a first fluid; (b) feeding a second fluid into the pipe at a known flow rate, a meniscus being formed between the first and the second fluid, and the meniscus moving along the pipe as the second fluid displaces the first fluid in the pipe; (c) ultrasonically detecting the position of the meniscus as it moves along the pipe; and (d) determining from the second fluid flow rate and the meniscus position, the internal cross-sectional area of the pipe along its length.
A pharmaceutical composition comprising a perillyl alcohol carbamate wherein the perillyl alcohol carbamate is perillyl alcohol conjugated with a chemotherapeutic agent selected from the group consisting of a DNA alkylating agent, a topoisomerase inhibitor, an endoplasmic reticulum stress inducing agent, a platinum compound, an antimetabolite, and rolipram.
A method for detecting a volatile substance in a textile, comprising: adopting an ion mobility spectrometer as a detection means to analyze a textile sample and obtain its ion mobility spectrum, either by means of directly inserting the textile sample to a sample inlet of the spectrometer, or in combination with a solvent extraction pretreatment step, by depositing the obtained extract onto a sampling substrate and inserting the substrate into the sample inlet of the spectrometer; if a peak characteristic of the volatile substance is present in the ion mobility spectrum of the textile sample and the peak intensity exceeds or is equal to a corresponding threshold value, determining the textile sample to be positive and generating an alarm; and if in the ion mobility spectrum of the textile sample no peak characteristic of the volatile substance is observed or a peak characteristic of said volatile substance is present but the peak intensity of this peak is lower than said threshold value, determining the textile sample to be negative; and estimating the concentration of the volatile substance in the textile sample based on the weight of the textile sample and the intensity of the peak characteristic of the volatile substance in the ion mobility spectrum, wherein said volatile substance belongs to a group of substances comprising: 2-ethoxyethyl acetate, dibutyl phthalate, di-isobutyl phthalate, butylbenzyl phthalate, 1-methylpyrrolidone, 2,4-dinitrotoluene, anthracene, hydrazine hydrate, di-isodecyl phthalate, and di-n-octyl phthalate. adopting an ion mobility spectrometer as a detection means to analyze a textile sample and obtain its ion mobility spectrum, either by means of directly inserting the textile sample to a sample inlet of the spectrometer, or in combination with a solvent extraction pretreatment step, by depositing the obtained extract onto a sampling substrate and inserting the substrate into the sample inlet of the spectrometer; if a peak characteristic of the volatile substance is present in the ion mobility spectrum of the textile sample and the peak intensity exceeds or is equal to a corresponding threshold value, determining the textile sample to be positive and generating an alarm; and if in the ion mobility spectrum of the textile sample no peak characteristic of the volatile substance is observed or a peak characteristic of said volatile substance is present but the peak intensity of this peak is lower than said threshold value, determining the textile sample to be negative; and estimating the concentration of the volatile substance in the textile sample based on the weight of the textile sample and the intensity of the peak characteristic of the volatile substance in the ion mobility spectrum,