mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanism for anchoring endoluminal devices to a lumen, the mechanism comprising: a hub member configured to be located at a predetermined location inside the lumen; and a plurality of anchoring struts , the plurality of anchoring struts comprising: a spring portion attached to the hub member and configured to extend or contract during expansion and contraction of the lumen; and an anchoring portion connecting the spring portion to the lumen, the anchoring portion configured to penetrate a portion of the lumen; wherein the hub member is positioned on a plane with the anchoring portions of the plurality of anchoring struts, and wherein each of the spring portion of the plurality of anchoring struts comprise bent strut members configured to straighten during expansion of the lumen and bend during contraction of the lumen, characterized in that each of the bent strut members comprise undulating strut members having a substantially straight shape when viewed in a transverse direction. a hub member configured to be located at a predetermined location inside the lumen; and a plurality of anchoring struts , the plurality of anchoring struts comprising: a spring portion attached to the hub member and configured to extend or contract during expansion and contraction of the lumen; and an anchoring portion connecting the spring portion to the lumen, the anchoring portion configured to penetrate a portion of the lumen; a spring portion attached to the hub member and configured to extend or contract during expansion and contraction of the lumen; and an anchoring portion connecting the spring portion to the lumen, the anchoring portion configured to penetrate a portion of the lumen; wherein the hub member is positioned on a plane with the anchoring portions of the plurality of anchoring struts, and wherein each of the spring portion of the plurality of anchoring struts comprise bent strut members configured to straighten during expansion of the lumen and bend during contraction of the lumen, characterized in that each of the bent strut members comprise undulating strut members having a substantially straight shape when viewed in a transverse direction.
A method for sensor fault detection and identification for a vehicle , the method comprising: producing, with sensors located on the vehicle , data comprising sensor measurement data, wherein the data comprises m different types of data, and m is an integer greater than two; performing, by at least one processor , majority voting on the data for each of the types of data to generate a single voted value for each of the types of data; generating, by the at least one processor , for each of the types of data, m estimated values by using n of the single voted values , wherein n is equal to m minus one; generating, by the at least one processor , residuals (r1, r2, r3, r4) by comparing the estimated values to the single voted values ; and analyzing, by the at least one processor , a pattern of the residuals (r1, r2, r3, r4) to determine which of the types of the data is erroneous to detect and identify a fault experienced by at least one of the sensors on the vehicle . producing, with sensors located on the vehicle , data comprising sensor measurement data, wherein the data comprises m different types of data, and m is an integer greater than two; performing, by at least one processor , majority voting on the data for each of the types of data to generate a single voted value for each of the types of data; generating, by the at least one processor , for each of the types of data, m estimated values by using n of the single voted values , wherein n is equal to m minus one; generating, by the at least one processor , residuals (r1, r2, r3, r4) by comparing the estimated values to the single voted values ; and analyzing, by the at least one processor , a pattern of the residuals (r1, r2, r3, r4) to determine which of the types of the data is erroneous to detect and identify a fault experienced by at least one of the sensors on the vehicle .
An extensible bearing element intended to be positioned in a tool for sealing a bottom or a lid of a cardboard package on a body of said package by melting using a sealing stamp of a reactivatable material allowing the bonding between the walls of the bottom or the lid and the body ; the bearing element having a generally polygonal shape and being preferably made from an elastomer and having a profile in cross-section comprising two extension sections with a parallel generally elongated shape extending along an extension direction (E), the extension sections each being connected, at one of their ends , to a bearing section , such that the extension sections and the bearing section define an inflation cavity of the extensible bearing element between them, the extension sections being configured so as to extend along the extension direction (E) during the inflation of the extensible bearing element , the bearing section comprising a substantially flat free bearing surface , configured to come into contact with the packaging body , the bearing surface extending along a plane substantially normal to the extension direction (E) across from the sealing stamp and preferably, the bearing section comprising beveled release portions at the junctions with the extension sections , said extensible bearing element further comprising maintaining lips extending, from the ends of the extension sections opposite the bearing section , along a direction substantially normal to the extension direction (E).
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and an aromatic alcohol chosen from: i) a phenoxyalcohol of formula C 6 H 5 -O-R-OH, R denoting a divalent hydrocarbon-based radical having 2 or 3 carbon atoms; ii) phenylethyl alcohol; ii) benzyl alcohol; iv) a cresol compound of formula (I): in which R 1 denotes H or an isopropyl radical. i) a phenoxyalcohol of formula C 6 H 5 -O-R-OH, R denoting a divalent hydrocarbon-based radical having 2 or 3 carbon atoms; ii) phenylethyl alcohol; ii) benzyl alcohol; iv) a cresol compound of formula (I): in which R 1 denotes H or an isopropyl radical.
A synthetic resin container comprising a tubular mouth portion and a body connected to the mouth portion and forming a space (S) that contains contents, the body being squeezed to discharge the contents, wherein, the body has a flattened shape with a width larger than a thickness; an end on one side of the body in an axial direction along a center axis line (C) of the body is connected to the mouth portion ; an end on another side of the body in the axial direction of the body is closed and has a curved shape protruding to the another side in the axial direction; widthwise ends on both sides of the body are provided respectively with bent portions extending in parallel with the axial direction; and when the body is squeezed in a thickness direction to discharge the contents, the bent portion is configured to be a starting point when one of a front side wall and a rear side wall opposed to each other in the thickness direction of the body is inverted and deformed toward the other, wherein in a side view from an extending direction of a long axis of the body , a contour line of the end on the another side in the axial direction is located inside a semicircular virtual arc that passes through a center point of the end on the another side located on the center axis line (C) and has a maximum thickness of the body as a diameter. characterized by that in a front view from an extending direction of a short axis of the body , a contour line of the end on the another side in the axial direction is a substantially semicircular with a maximum width of the body as a diameter. the body has a flattened shape with a width larger than a thickness; an end on one side of the body in an axial direction along a center axis line (C) of the body is connected to the mouth portion ; an end on another side of the body in the axial direction of the body is closed and has a curved shape protruding to the another side in the axial direction; widthwise ends on both sides of the body are provided respectively with bent portions extending in parallel with the axial direction; and when the body is squeezed in a thickness direction to discharge the contents, the bent portion is configured to be a starting point when one of a front side wall and a rear side wall opposed to each other in the thickness direction of the body is inverted and deformed toward the other, wherein in a side view from an extending direction of a long axis of the body , a contour line of the end on the another side in the axial direction is located inside a semicircular virtual arc that passes through a center point of the end on the another side located on the center axis line (C) and has a maximum thickness of the body as a diameter. characterized by that in a front view from an extending direction of a short axis of the body , a contour line of the end on the another side in the axial direction is a substantially semicircular with a maximum width of the body as a diameter.
A container for a fluid in a vehicle , comprising: an inlet for filling the fluid into the container , the inlet being arranged at a top wall or top edge of the container , the inlet being adapted to couple with a cap for closing the inlet , the cap comprising a valve for pressure equalization; an inner wall protruding from around the inlet into the interior space of the container , thereby forming an air trapping volume for trapping air ; wherein the air trapping volume is delimited by the inlet , the inner wall , the cap and a fluid surface inside the container when the container is used; wherein the inner wall is configured such that the cap and/or the valve remains separated from the fluid by the air trapped in the air trapping volume if the fluid surface is inclined about an axis (A), wherein the inner wall separates the interior of the container into a first and a second container portion , the first and second container portions being communicatively connected to allow a flow of fluid there between, characterized in that the container comprises a conduit for communicatively coupling the first and second container portions , the conduit comprising a conduit mouth to allow a flow of air between the first and second container portions when the conduit mouth is not covered by the fluid , wherein the designated maximum filling level of the container corresponds to an amount of fluid in the container having more than 75% up to 90% of an inner volume of the container and lies below the conduit mouth such that the air flow is at least allowed in the container's rest position. an inlet for filling the fluid into the container , the inlet being arranged at a top wall or top edge of the container , the inlet being adapted to couple with a cap for closing the inlet , the cap comprising a valve for pressure equalization; an inner wall protruding from around the inlet into the interior space of the container , thereby forming an air trapping volume for trapping air ; wherein the air trapping volume is delimited by the inlet , the inner wall , the cap and a fluid surface inside the container when the container is used; wherein the inner wall is configured such that the cap and/or the valve remains separated from the fluid by the air trapped in the air trapping volume if the fluid surface is inclined about an axis (A), wherein the inner wall separates the interior of the container into a first and a second container portion , the first and second container portions being communicatively connected to allow a flow of fluid there between, characterized in that the container comprises a conduit for communicatively coupling the first and second container portions , the conduit comprising a conduit mouth to allow a flow of air between the first and second container portions when the conduit mouth is not covered by the fluid , wherein the designated maximum filling level of the container corresponds to an amount of fluid in the container having more than 75% up to 90% of an inner volume of the container and lies below the conduit mouth such that the air flow is at least allowed in the container's rest position.
A tissue paper product comprising: a web obtained by folding and stacking in a pop-up manner a plurality of sheets of tissue paper containing a moisturizer; and a rectangular parallelepiped paper box storing the web and having an outlet in its upper surface , wherein the sheets of tissue paper are 2-ply sheets having a 1-ply basis weight of not less than 11.7 g/m 2 and not more than 13.0 g/m 2 and having a 2-ply paper thickness of more than 123 μm and not more than 145 μm, the dry tensile strength of the tissue paper is more than 273 cN/25 mm and not more than 352 cN/25 mm in the machine direction, and more than 98 cN/25 mm and less than 132 cN/25 mm in the cross-machine direction, and the content of the moisturizer in the tissue paper is not less than 1.0 g/m 2 and less than 2.5 g/m 2 , wherein the web has a web compressive stress of more than 0.47 g/cm 2 and less than 0.89 g/cm 2 , wherein the ratio of the product of the paper thickness and the number of the 2-ply sheets to a web bulk is not less than 0.34, wherein the ratio of the web bulk to the height of the paper box is not less than 0.95 and less than 1.03, wherein the ratio of the length of the tissue paper in the cross-machine direction to the length of the paper box in the longitudinal direction is not less than 0.84, and wherein the space volume ratio of the tissue paper product is not less than 79%, which refers to the ratio of the product of the web bulk, the depth of the web and the length of the tissue paper in the cross-machine direction to the product of the height of an external surface of the paper box, the width of the external surface of the paper box and the depth of the external surface of the paper box. wherein the sheets of tissue paper are 2-ply sheets having a 1-ply basis weight of not less than 11.7 g/m 2 and not more than 13.0 g/m 2 and having a 2-ply paper thickness of more than 123 μm and not more than 145 μm, the dry tensile strength of the tissue paper is more than 273 cN/25 mm and not more than 352 cN/25 mm in the machine direction, and more than 98 cN/25 mm and less than 132 cN/25 mm in the cross-machine direction, and the content of the moisturizer in the tissue paper is not less than 1.0 g/m 2 and less than 2.5 g/m 2 , wherein the web has a web compressive stress of more than 0.47 g/cm 2 and less than 0.89 g/cm 2 , wherein the ratio of the product of the paper thickness and the number of the 2-ply sheets to a web bulk is not less than 0.34, wherein the ratio of the web bulk to the height of the paper box is not less than 0.95 and less than 1.03, wherein the ratio of the length of the tissue paper in the cross-machine direction to the length of the paper box in the longitudinal direction is not less than 0.84, and wherein the space volume ratio of the tissue paper product is not less than 79%, which refers to the ratio of the product of the web bulk, the depth of the web and the length of the tissue paper in the cross-machine direction to the product of the height of an external surface of the paper box, the width of the external surface of the paper box and the depth of the external surface of the paper box.
An anti-CD28 single immunoglobulin variable domain antibody for use in treating systemic lupus erythematosus (SLE) in a patient, which comprises a variable domain, wherein the variable domain comprises the amino acid sequence of SEQ ID NO: 12 (1h-239-891(D70C)) or differs from SEQ ID NO: 12 by up to 5 amino acids, wherein the anti-CD28 domain antibody is administered subcutaneously at a dose of 12.5 mg every week or every two weeks, wherein the variable domain of the anti-CD28 single immunoglobulin variable domain antibody comprises: a CDR1 region having the amino acid sequence of SEQ ID NO: 1; a CDR2 region having the amino acid sequence of SEQ ID NO: 2; and a CDR3 region having the amino acid sequence of SEQ ID NO: 3.
A foam molding method comprising: rotating a screw provided in a barrel ; feeding a granular or powdery raw material and a foaming agent for producing foams through chemical reaction into the barrel ; melting the fed raw material in the barrel at a predetermined temperature such that gas is produced from the foaming agent; characterised by phase-changing the produced gas into a supercritical fluid and mixing the supercritical fluid with the melted raw material; and injecting the mixture of the supercritical fluid and the melted raw material into a die . rotating a screw provided in a barrel ; feeding a granular or powdery raw material and a foaming agent for producing foams through chemical reaction into the barrel ; melting the fed raw material in the barrel at a predetermined temperature such that gas is produced from the foaming agent; characterised by phase-changing the produced gas into a supercritical fluid and mixing the supercritical fluid with the melted raw material; and injecting the mixture of the supercritical fluid and the melted raw material into a die .
A construction machine comprising: a power source ; a plurality of actuators that operate by receiving a power from the power source ; a plurality of control levers that instruct amounts of the power to be distributed to the plurality of actuators ; a plurality of operation state sensors that detect operation states of the plurality of control levers ; and a controller that controls the power output by the power source , the controller being configured to perform power reduction control of the power source on a basis of the operation states of the plurality of control levers detected by the plurality of operation state sensors when a non-operation time of the plurality of control levers exceeds a set time after a transition is made from a state in which at least one of the plurality of control levers is operated to a non-operation state in which none of the plurality of control levers is operated, and to cancel the power reduction control when at least one of the plurality of control levers is operated in a state in which the power reduction control is performed, characterised in that the controller is further configured to set the set time as a first set time (Tth1) when an operation time until the at least one control lever makes a transition to the non-operation state is longer than a monitoring time (Tth0) set in advance, and set the set time as a second set time (Tth2) shorter than the first set time (Tth1) when the operation time until the at least one control lever makes a transition to the non-operation state is shorter than the monitoring time (Tth0) set in advance. a power source ; a plurality of actuators that operate by receiving a power from the power source ; a plurality of control levers that instruct amounts of the power to be distributed to the plurality of actuators ; a plurality of operation state sensors that detect operation states of the plurality of control levers ; and a controller that controls the power output by the power source , the controller being configured to perform power reduction control of the power source on a basis of the operation states of the plurality of control levers detected by the plurality of operation state sensors when a non-operation time of the plurality of control levers exceeds a set time after a transition is made from a state in which at least one of the plurality of control levers is operated to a non-operation state in which none of the plurality of control levers is operated, and to cancel the power reduction control when at least one of the plurality of control levers is operated in a state in which the power reduction control is performed, characterised in that the controller is further configured to set the set time as a first set time (Tth1) when an operation time until the at least one control lever makes a transition to the non-operation state is longer than a monitoring time (Tth0) set in advance, and set the set time as a second set time (Tth2) shorter than the first set time (Tth1) when the operation time until the at least one control lever makes a transition to the non-operation state is shorter than the monitoring time (Tth0) set in advance.
A suction pad for sucking an object (61, W) under a negative pressure, the suction pad comprising: a stationary section fixable on a support ; and a deformable section deformable under the negative pressure, the deformable section including a plurality of marks (151 to 155) at a plurality of positions spaced from one another and displaceable with respect to the stationary section in response to deformation of the deformable section , the plurality of marks (151 to 155) being optically identifiable, the plurality of marks (151 to 155) being continuous across the plurality of positions or being separate at the plurality of positions characterized in that the marks (151 to 155) are formed from a retroreflective material. a stationary section fixable on a support ; and a deformable section deformable under the negative pressure, the deformable section including a plurality of marks (151 to 155) at a plurality of positions spaced from one another and displaceable with respect to the stationary section in response to deformation of the deformable section , the plurality of marks (151 to 155) being optically identifiable, the plurality of marks (151 to 155) being continuous across the plurality of positions or being separate at the plurality of positions characterized in that the marks (151 to 155) are formed from a retroreflective material.
A system for inserting a transcutaneous analyte sensor into a host, the system comprising: a transcutaneous analyte sensor for measuring an analyte concentration in the host; a housing configured for placement adjacent to a skin of the host and configured for receiving at least a portion of the sensor; a needle configured to insert the sensor through the housing and into the host; and an applicator configured to releasably mate with the housing, the applicator comprising a plunger configured to push the needle and the sensor through the housing into the host, wherein the housing is configured to lie adjacent to the skin of the host, wherein the housing is configured to support the sensor under the skin of the host after sensor insertion, and wherein the applicator comprises a base configured to releasably mate with the housing at an adjustable insertion angle. a transcutaneous analyte sensor for measuring an analyte concentration in the host; a housing configured for placement adjacent to a skin of the host and configured for receiving at least a portion of the sensor; a needle configured to insert the sensor through the housing and into the host; and an applicator configured to releasably mate with the housing, the applicator comprising a plunger configured to push the needle and the sensor through the housing into the host, wherein the housing is configured to lie adjacent to the skin of the host, wherein the housing is configured to support the sensor under the skin of the host after sensor insertion, and wherein the applicator comprises a base configured to releasably mate with the housing at an adjustable insertion angle.