mhurhangee/patent-ind-claim-en huggingface dataset:
A hard surface treatment composition comprising: a. an antimicrobial component comprising at least one quaternary ammonium compound; b. a synthetic polymer comprising: i. at least one cationic monomer A b , ii. optionally, at least one anionic monomer B a , and iii. optionally, at least one non-ionic monomer C a ; c. an organic acid; and d. a surfactant selected from the group consisting of cationic amine oxide surfactants, and combinations of cationic amine oxide surfactants and amphoteric surfactants, wherein the composition is free of non-ionic surfactants. a. an antimicrobial component comprising at least one quaternary ammonium compound; b. a synthetic polymer comprising: i. at least one cationic monomer A b , ii. optionally, at least one anionic monomer B a , and iii. optionally, at least one non-ionic monomer C a ; i. at least one cationic monomer A b , ii. optionally, at least one anionic monomer B a , and iii. optionally, at least one non-ionic monomer C a ; c. an organic acid; and d. a surfactant selected from the group consisting of cationic amine oxide surfactants, and combinations of cationic amine oxide surfactants and amphoteric surfactants,
An apparatus for forming a tire bead, the apparatus comprising: a rotatable bead former having a front portion and a back portion , the rotatable bead former comprising: a first step comprising a first diameter, the first step having at least a first bead-engaging surface circumnavigating an axis (A) and configured to receive a first tire bead; and a second step located closer to the back portion than the first step , the second step comprising a second diameter different than the first diameter, the second step having a second bead-engaging surface circumnavigating the axis and configured to receive a second tire bead, characterized in that the apparatus comprises a first bore extending from the back portion towards the front portion to a location located beneath the first step . a first step comprising a first diameter, the first step having at least a first bead-engaging surface circumnavigating an axis (A) and configured to receive a first tire bead; and a second step located closer to the back portion than the first step , the second step comprising a second diameter different than the first diameter, the second step having a second bead-engaging surface circumnavigating the axis and configured to receive a second tire bead, characterized in that the apparatus comprises a first bore extending from the back portion towards the front portion to a location located beneath the first step .
A medical apparatus comprising: a mixing nozzle including; a nozzle inlet configured to couple to a syringe containing a medical agent; a nozzle outlet ; and a nozzle body disposed between the nozzle inlet and the nozzle outlet , the nozzle body defining a longitudinal axis (k) and including at least two individual mixing channels in fluid communication with the nozzle inlet and with the nozzle outlet , wherein the at least two mixing channels define fluidically separate flow paths (f) that are fluidically separate between the nozzle inlet and the nozzle outlet at least one mixing channel of the at least two mixing channels defining a flow path (f) having longitudinal and radial components of direction with respect to the longitudinal axis (t) defined by the nozzle body , wherein the nozzle inlet defines an inlet chamber that is configured to receive the medical agent from the syringe and is in fluid communication with each of the at least two individual mixing channels , said medical apparatus being characterized in that at least one mixing channel defines an arcuate flow path that diverges outwardly relative to the longitudinal axis from the nozzle inlet toward a median transverse axis (m) bisecting the nozzle body and converges inwardly from the median transverse axis toward the nozzle outlet. a mixing nozzle including; a nozzle inlet configured to couple to a syringe containing a medical agent; a nozzle outlet ; and a nozzle body disposed between the nozzle inlet and the nozzle outlet , the nozzle body defining a longitudinal axis (k) and including at least two individual mixing channels in fluid communication with the nozzle inlet and with the nozzle outlet , wherein the at least two mixing channels define fluidically separate flow paths (f) that are fluidically separate between the nozzle inlet and the nozzle outlet at least one mixing channel of the at least two mixing channels defining a flow path (f) having longitudinal and radial components of direction with respect to the longitudinal axis (t) defined by the nozzle body , wherein the nozzle inlet defines an inlet chamber that is configured to receive the medical agent from the syringe and is in fluid communication with each of the at least two individual mixing channels , said medical apparatus being characterized in that at least one mixing channel defines an arcuate flow path that diverges outwardly relative to the longitudinal axis from the nozzle inlet toward a median transverse axis (m) bisecting the nozzle body and converges inwardly from the median transverse axis toward the nozzle outlet.
A high-strength seamless stainless steel pipe for oil country tubular goods having the composition which contains, by mass%, C: 0.05% or less, Si: 1.0% or less, Mn: 0.1 to 0.5%, P: 0.05% or less, S: less than 0.005%, Cr: more than 15.0% to 19.0% or less, Mo: more than 2.0% to 2.7% or less, Cu: 0.3 to 3.5%, Ni: 3.0% or more and less than 5.0%, W: 0.1 to 3.0%, Nb: 0.07 to 0.5%, V: 0.01 to 0.5%, Al: 0.001 to 0.1%, N: 0.010 to 0.100%, O: 0.01% or less, optionally one kind or two or more kinds selected from a group consisting of Ti: 0.3% or less, B: 0.0050% or less, Zr: 0.2% or less, Co: 1.0% or less, and Ta: 0.1% or less, optionally one kind or two kinds selected from a group consisting of Ca: 0.0050% or less and REM: 0.01% or less, optionally one kind or two kinds selected from a group consisting of Mg: 0.01% or less and Sn: 0.2% or less and Fe and unavoidable impurities as a balance, wherein Nb, Ta, C, N and Cu satisfy a following formula , having a microstructure which is formed of 45% or more of a tempered martensite phase, 20 to 40% of a ferrite phase, and more than 10% and 25% or less of a residual austenite phase in terms of a volume ratio, and having a yield strength YS of 862MPa or more: 5.1 × Nb + 0.5 Ta − 10 − 2.2 / C + 1.2 N + Cu ≥ 2.0 where, Nb, Ta, C, N and Cu: contents in mass % of respective elements which are expressed as zero when not contained.
A method for preparing a composition suitable for treating mucopolysaccharidosis type IIID (MPS IIID) in a human patient in need thereof, comprising testing the sulfatase activity of a recombinant polypeptide in a testing buffer comprising less than 500 mM sodium, less than 100 mM citrate, less than 100 mM phosphate, less than 100 mM sulfate, and at least 0.005% Triton X-100, and providing the recombinant polypeptide in an artificial cerebrospinal fluid to prepare the composition, wherein the recombinant polypeptide comprises the amino acid sequence of SEQ ID NO: 1 or an amino acid sequence (a) having at least 95% sequence identity to SEQ ID NO: 1 and (b) having the enzymatic activity of human acetylglucosamine-6-sulfatase (GNS).
A compound of formula (I): X 1 -(D)-Arg-X 2 -(D)-Arg-NH 2 (I) wherein: X 1 is selected from the group consisting of Ac-(D)-Tyr, phenylacetyl and 3-phenylpropionyl; X 2 is selected from the group consisting of (D)-Glu, (D)-Ser and Aib, wherein Aib is α-methyl-Ala; and their pharmaceutically acceptable salts. X 1 is selected from the group consisting of Ac-(D)-Tyr, phenylacetyl and 3-phenylpropionyl; X 2 is selected from the group consisting of (D)-Glu, (D)-Ser and Aib, wherein Aib is α-methyl-Ala; and their pharmaceutically acceptable salts.
An antisense oligonucleotide (ASO) of between 12-25 nucleobases in length, hybridizing to 5'- TGACAGTTGTATTTTTGTTTGTGAcacgTATTATCTGTTAAAACATTTTC -3' (SEQ ID NO: 522) wherein the ASO hybridizes to the target nucleotide(s) indicated by lower case, and reduces mutant Huntingtin (HTT) mRNA or mutant HTT protein in a cell or tissue.
An obturator device for a printhead comprising: an obturator assembly having a valve surface movable along at least one direction of displacement (X) between a first position, in which the valve surface is at a distance from a reference surface (A), and a second position, in which the valve surface is in contact with the reference surface (A), said obturator assembly further comprising a connecting element , and a valve element , with which the valve surface is associated and which is adapted to house at least part of the connecting element , said connecting element further comprises a shaped structure at a distal end thereof; biasing means arranged between the connecting element and the valve element configured to bias the valve surface away from the connecting element , and an actuator , secured to the obturator assembly and operable to displace the obturator assembly between the first position and second position, wherein the obturator assembly comprises an adjustable coupling configured to allow the valve surface to align its orientation relative to the reference surface (A); wherein the adjustable coupling is configured to allow rotation of the valve surface about a centre (O) and to allow displacement of the valve surface along a direction of displacement (X) toward said shaped structure , a fixing means is operable to retain the valve surface in the position wherein the valve surface is substantially parallel with the reference surface (A). an obturator assembly having a valve surface movable along at least one direction of displacement (X) between a first position, in which the valve surface is at a distance from a reference surface (A), and a second position, in which the valve surface is in contact with the reference surface (A), said obturator assembly further comprising a connecting element , and a valve element , with which the valve surface is associated and which is adapted to house at least part of the connecting element , said connecting element further comprises a shaped structure at a distal end thereof; biasing means arranged between the connecting element and the valve element configured to bias the valve surface away from the connecting element , and an actuator , secured to the obturator assembly and operable to displace the obturator assembly between the first position and second position, wherein the obturator assembly comprises an adjustable coupling configured to allow the valve surface to align its orientation relative to the reference surface (A); wherein the adjustable coupling is configured to allow rotation of the valve surface about a centre (O) and to allow displacement of the valve surface along a direction of displacement (X) toward said shaped structure , a fixing means is operable to retain the valve surface in the position wherein the valve surface is substantially parallel with the reference surface (A).
A sheet dispenser comprising: a carton comprising six outwardly-facing surfaces; the six outwardly-facing surfaces comprising: a face panel substantially parallel to and spaced apart from a contact panel , a first trapezoidal shaped side-panel substantially parallel to and spaced apart from a second trapezoidal shaped side-panel , and a dispensing panel spaced apart from an obscure panel , wherein an acute edge is located between the dispensing panel and the contact panel , and an obtuse edge is located between the dispensing panel and the face panel ; further comprising a stack of towel substrate contained within the carton , characterised in that the dispensing panel comprises a first longitudinal axis and has an opening for dispensing a sheet, the opening being defined by an opening edge , and wherein the opening edge defines a shape having an opening longitudinal axis; and wherein the opening longitudinal axis is located between the first longitudinal axis and the acute edge , in that the stack of towel substrate comprises individual multi-folded towels making contact with each other at an overlap portion , wherein the stack comprises a leading edge that is oriented so that it lies within the opening edge that defines the opening; and in that the stack of towel substrate comprises a front side having a first height and an opposite rear side having a second height, wherein the first height is less than a second height by 10 mm to 30 mm. a face panel substantially parallel to and spaced apart from a contact panel , a first trapezoidal shaped side-panel substantially parallel to and spaced apart from a second trapezoidal shaped side-panel , and a dispensing panel spaced apart from an obscure panel , wherein an acute edge is located between the dispensing panel and the contact panel , and an obtuse edge is located between the dispensing panel and the face panel ; further comprising a stack of towel substrate contained within the carton , characterised in that the dispensing panel comprises a first longitudinal axis and has an opening for dispensing a sheet, the opening being defined by an opening edge , and wherein the opening edge defines a shape having an opening longitudinal axis; and wherein the opening longitudinal axis is located between the first longitudinal axis and the acute edge , in that the stack of towel substrate comprises individual multi-folded towels making contact with each other at an overlap portion , wherein the stack comprises a leading edge that is oriented so that it lies within the opening edge that defines the opening; and in that the stack of towel substrate comprises a front side having a first height and an opposite rear side having a second height, wherein the first height is less than a second height by 10 mm to 30 mm.
A method for removing sulphur compounds from a process stream comprising the step of contacting the process stream with an aqueous solution in which 30-99 wt% of the organic dry matter content of the aqueous solution is glycolaldehyde and 1-30 wt% of the organic dry matter content of the aqueous solution is pyruvaldehyde.
A casing of a pump comprising: a metal member configured to have at least two sub metal members ; a body; and a liner , wherein the sub metal members are included in the body, and the body is formed of plastic, characterized in that the casing protects an impeller of the pump, the sub metal members surround the liner , a fluid flow space through which fluid flows is formed in the liner , the liner includes a liner body member , a liner flange member and a liner connection member for connecting the liner body member to the liner flange member , at least one of the sub metal members includes a sub metal body member , a sub metal flange member and a sub metal connection member for connecting the sub metal body member to the sub metal flange member , the body includes a body member , a body flange member and a body connection member for connecting the body member to the body flange member , a width of the sub metal flange member is higher than a width of the liner flange member , and the sub metal flange member surrounds the liner connection member just beneath the liner flange member , one of the sub metal members surrounds a part of the body, and the other sub metal member surrounds the other part of the body. a metal member configured to have at least two sub metal members ; a body; and a liner , wherein the sub metal members are included in the body, and the body is formed of plastic, characterized in that the casing protects an impeller of the pump, the sub metal members surround the liner , a fluid flow space through which fluid flows is formed in the liner , the liner includes a liner body member , a liner flange member and a liner connection member for connecting the liner body member to the liner flange member , at least one of the sub metal members includes a sub metal body member , a sub metal flange member and a sub metal connection member for connecting the sub metal body member to the sub metal flange member , the body includes a body member , a body flange member and a body connection member for connecting the body member to the body flange member , a width of the sub metal flange member is higher than a width of the liner flange member , and the sub metal flange member surrounds the liner connection member just beneath the liner flange member , one of the sub metal members surrounds a part of the body, and the other sub metal member surrounds the other part of the body.
A method of microwave heating of rotatable articles by at least one microwave radiation source in a heating chamber configured to receive a rotatable article, wherein each microwave radiation source is connected to the heating chamber via at least one wave guide having at least one inlet in a lateral wall of the heating chamber , wherein the rotatable article comprises a material absorbing microwave radiation, wherein direct and selective heating of a heated portion of the rotatable article is performed in a heating space defined by at least one inlet of the wave guide in the lateral wall of the heating chamber , the heated portion of the rotatable article and at least two covers arranged one above another and in the form of an area defined by an inner and outer circumference, wherein at least one cover is attached in the heating chamber and/or at least one cover is vertically slidable relative to the lateral wall of the heating chamber such that the covers prevent microwave radiation to propagate outside the heating space in the vertical direction, wherein at least one cover comprises a stationary ring on the outer circumference of said area, wherein the non-heated portions of the rotatable article outside the heating space are not directly heated, wherein at least one cover comprises at least one extendable portion on the inner circumference of said area. wherein direct and selective heating of a heated portion of the rotatable article is performed in a heating space defined by at least one inlet of the wave guide in the lateral wall of the heating chamber , the heated portion of the rotatable article and at least two covers arranged one above another and in the form of an area defined by an inner and outer circumference, wherein at least one cover is attached in the heating chamber and/or at least one cover is vertically slidable relative to the lateral wall of the heating chamber such that the covers prevent microwave radiation to propagate outside the heating space in the vertical direction, wherein at least one cover comprises a stationary ring on the outer circumference of said area, wherein the non-heated portions of the rotatable article outside the heating space are not directly heated, wherein at least one cover comprises at least one extendable portion on the inner circumference of said area.
A method for fabricating a blazed grating comprising a ridge having a blaze facet facing a blaze facet direction and an anti-blaze facet facing an anti-blaze facet direction, the blaze facet direction and the anti-blaze facet direction extending along a grating cross-sectional plane, the method comprising: - providing a substrate and a patterned mask layer on the substrate, - performing primary dry etching of the substrate such that primary ions are accelerated towards a primary etch direction to impinge on the substrate, and - performing secondary dry etching of the substrate such that secondary ions are accelerated towards a secondary etch direction to impinge on the substrate; wherein a primary projection of the primary etch direction onto the grating cross-sectional plane extends perpendicular to the anti-blaze facet direction and a secondary projection of the secondary etch direction onto the grating cross-sectional plane extends perpendicular to the blaze facet direction and ions accelerated towards a direction with a projection onto the grating cross-sectional plane perpendicular to the blaze facet direction are collimated to form a collimated ion beam for etching the substrate; wherein the method comprises not revealing a ridge portion of the substrate prior to the process of performing secondary dry etching and the mask layer comprises an inorganic material. - providing a substrate and a patterned mask layer on the substrate, - performing primary dry etching of the substrate such that primary ions are accelerated towards a primary etch direction to impinge on the substrate, and - performing secondary dry etching of the substrate such that secondary ions are accelerated towards a secondary etch direction to impinge on the substrate; wherein a primary projection of the primary etch direction onto the grating cross-sectional plane extends perpendicular to the anti-blaze facet direction and a secondary projection of the secondary etch direction onto the grating cross-sectional plane extends perpendicular to the blaze facet direction and ions accelerated towards a direction with a projection onto the grating cross-sectional plane perpendicular to the blaze facet direction are collimated to form a collimated ion beam for etching the substrate; wherein the method comprises not revealing a ridge portion of the substrate prior to the process of performing secondary dry etching and the mask layer comprises an inorganic material. wherein a primary projection of the primary etch direction onto the grating cross-sectional plane extends perpendicular to the anti-blaze facet direction and a secondary projection of the secondary etch direction onto the grating cross-sectional plane extends perpendicular to the blaze facet direction and ions accelerated towards a direction with a projection onto the grating cross-sectional plane perpendicular to the blaze facet direction are collimated to form a collimated ion beam for etching the substrate; wherein the method comprises not revealing a ridge portion of the substrate prior to the process of performing secondary dry etching and the mask layer comprises an inorganic material.