mhurhangee/patent-ind-claim-en huggingface dataset:
Bearing hub for a washing machine, of a metallic material, destined to be embedded in a plastic tub of the washing machine to the support of a rotation axis of a drum, the bearing hub having a trunco-conicity in the direction of its axis, and having at least an outer surface with an eccentricity, characterized in that the outer surfaces are essentially smooth, i.e. these surfaces lack ribs intended to prevent rotational movement of the bearing hub relative to the plastic tub and that the eccentricity itself prevents rotation of the bearing hub relative to the tub.
A tape being open-ended with two ending edges and with a longitudinal length L in a longitudinal direction, the tape being suitable for making an endless conveyor belt , power transmission belt or machine tape , the tape comprising: a) two parallel lateral edges either running in said longitudinal direction and being spaced apart from each other by a transversal width W; b) a first textile layer ; c) a first coating layer ; and optionally d) one more through holes perforating the belt through its overall thickness T, each of these through holes being formed by a hole edge ; characterized in that i) the first textile layer comprises fibres or filaments of a thermoplastic and the first coating layer comprises a thermoplastic or thermoplastic elastomer; and ii) the lateral edges are ultrasound-cut or laser-cut. a) two parallel lateral edges either running in said longitudinal direction and being spaced apart from each other by a transversal width W; b) a first textile layer ; c) a first coating layer ; and optionally d) one more through holes perforating the belt through its overall thickness T, each of these through holes being formed by a hole edge ; i) the first textile layer comprises fibres or filaments of a thermoplastic and the first coating layer comprises a thermoplastic or thermoplastic elastomer; and ii) the lateral edges are ultrasound-cut or laser-cut.
A threaded pin (1; 100) and component assembly, wherein the threaded pin (1; 100) is screwable in a threaded hole made in the component , wherein the threaded pin (1; 100) comprises a threaded cylindrical stem extending between a proximal stem end and a distal stem end (10"), the threaded cylindrical stem having a threading envelope defined by the outer diameter (d 3 ) of the ridges of the thread, and a coupling end portion extending from the distal stem end (10"), at least one annular groove being made in said coupling end portion delimited distally by a distal annular ridge defining the maximum outer diameter (d 1 ) of the coupling end portion , wherein said maximum outer diameter of the coupling end portion is less than the inner diameter (d 2 ) of the threaded cylindrical stem so that the coupling end portion is insertable with play into the threaded hole , wherein said distal annular ridge is suitable for insertion between the ridges of the female thread of said threaded hole in the absence of screwing between the threaded pin (1; 100) and the threaded hole , characterized in that the threading envelope forms distally a conical surface at an angle of approximately 20° with respect to the threaded pin axis, so that, when the coupling end portion is fully inserted into the threaded hole and the threaded pin is released, the threaded pin tilts and remains coupled to the component , the distal stem end (10") abuts against the first ridge of the female thread of the threaded hole when the distal annular ridge is inserted between two ridges of the female thread, and the threaded pin (1; 100) can be rotated to realign the threaded pin (1; 100) to the threaded hole .
Leak sealing device for sealing a leak in a container, tank and/or pipe comprising - a housing-like carrier unit , - at least one expandable leakage sealing means provided at one end region of the carrier unit , which in its storage position is located completely within the carrier unit and is not or only slightly expanded, and at least one fluid connection and/or at least one fluid discharge unit , which is coupled to the carrier unit in such a way that, when fluid is supplied, the leakage sealing means is at least partially filled with the fluid and expands in its sealing position, in which the leakage sealing means is located at least partially outside the carrier unit for sealing the leakage, the leakage sealing means being mounted movably between the storage position and the sealing position, wherein a longitudinally movably mounted piston unit is provided in the carrier unit , and the leakage sealing means is coupled to the piston unit and/or the carrier unit and the at least one fluid connection and/or the at least one fluid discharge unit in such a way that, when fluid is supplied, the fluid drives the piston unit into the sealing position and at least partially fills the leakage sealing means via a fluid supply line . - a housing-like carrier unit , - at least one expandable leakage sealing means provided at one end region of the carrier unit , which in its storage position is located completely within the carrier unit and is not or only slightly expanded, and at least one fluid connection and/or at least one fluid discharge unit , which is coupled to the carrier unit in such a way that, when fluid is supplied, the leakage sealing means is at least partially filled with the fluid and expands in its sealing position, in which the leakage sealing means is located at least partially outside the carrier unit for sealing the leakage, the leakage sealing means being mounted movably between the storage position and the sealing position, wherein a longitudinally movably mounted piston unit is provided in the carrier unit , and the leakage sealing means is coupled to the piston unit and/or the carrier unit and the at least one fluid connection and/or the at least one fluid discharge unit in such a way that, when fluid is supplied, the fluid drives the piston unit into the sealing position and at least partially fills the leakage sealing means via a fluid supply line .
An electro-mechanical control system that is configured to carry out a method of calibrating the pneumatic performance range of a system for delivering pneumatic power to a pneumatically sealed trocar, comprising the steps of: a) supplying pneumatic power to a pneumatically sealed trocar to achieve a desired cavity pressure ; b) measuring the pneumatic power supplied to the pneumatically sealed trocar and the cavity pressure over a predetermined time period (t 1 -t 2 ; t 1 -t 1' , t 2 -t 2' , t 3 -t 3' , t 4 -t 4' ), as the system attempts to maintain the desired cavity pressure; c) calculating performance characteristics of the pneumatically sealed trocar based on the measured cavity pressure and pneumatic power values by way of reference to a look-up table with known values, including expected baseline performance values conditional upon corresponding average cavity pressure values and average pneumatic power values; and d) adjusting the pneumatic power supplied to the pneumatically sealed trocar based upon the calculated performance characteristics of the pneumatically sealed trocar by setting operating limits around the calculated performance characteristics of the trocar. a) supplying pneumatic power to a pneumatically sealed trocar to achieve a desired cavity pressure ; b) measuring the pneumatic power supplied to the pneumatically sealed trocar and the cavity pressure over a predetermined time period (t 1 -t 2 ; t 1 -t 1' , t 2 -t 2' , t 3 -t 3' , t 4 -t 4' ), as the system attempts to maintain the desired cavity pressure; c) calculating performance characteristics of the pneumatically sealed trocar based on the measured cavity pressure and pneumatic power values by way of reference to a look-up table with known values, including expected baseline performance values conditional upon corresponding average cavity pressure values and average pneumatic power values; and d) adjusting the pneumatic power supplied to the pneumatically sealed trocar based upon the calculated performance characteristics of the pneumatically sealed trocar by setting operating limits around the calculated performance characteristics of the trocar.
A method for coating a material, the method comprising: (a) contacting the material with a coating material and a solvent to obtain a coated material; (b) evaporating the solvent from the coated material in an interior volume of a coating container having a side wall by heating the coated material, coating container, and/or an internal container configured to hold coated and/or uncoated material positioned in the interior volume of the coating container where at least the internal container is heated with heat being generated from a heat source positioned in the interior volume of the coating container and external to the internal container, wherein the heat source is positioned downstream from where the coating material contacts the material to be coated in step (a); and (c) removing the evaporated solvent from the interior volume of the coating container by contacting the evaporated solvent with a sweep gas to produce a solvent-enriched sweep gas and removing the solvent-enriched sweep gas from the interior volume of the coating container. (a) contacting the material with a coating material and a solvent to obtain a coated material; (b) evaporating the solvent from the coated material in an interior volume of a coating container having a side wall by heating the coated material, coating container, and/or an internal container configured to hold coated and/or uncoated material positioned in the interior volume of the coating container where at least the internal container is heated with heat being generated from a heat source positioned in the interior volume of the coating container and external to the internal container, wherein the heat source is positioned downstream from where the coating material contacts the material to be coated in step (a); and (c) removing the evaporated solvent from the interior volume of the coating container by contacting the evaporated solvent with a sweep gas to produce a solvent-enriched sweep gas and removing the solvent-enriched sweep gas from the interior volume of the coating container.
A method of generating associated image files, so that their genuineness can be verified, comprising: scanning an object to be inspected to obtain first image raw data and second image raw data that are associated with each other; creating a first image file based on the first image raw data at a first time, wherein the first time is recorded in a file header of the first image file; generating a random time value; and generating a second image file associated with the first image file based on the second image raw data at a second time which is later than the first time by the random time value, wherein the second time and the random time value are recorded in a file header of the second image file. scanning an object to be inspected to obtain first image raw data and second image raw data that are associated with each other; creating a first image file based on the first image raw data at a first time, wherein the first time is recorded in a file header of the first image file; generating a random time value; and generating a second image file associated with the first image file based on the second image raw data at a second time which is later than the first time by the random time value, wherein the second time and the random time value are recorded in a file header of the second image file.
Endovascular apparatus for crossing through an obstruction in a blood vessel, the apparatus comprising: an elongate endovascular element , a source of ultrasonic energy comprising an ultrasonic transducer in a transducer housing , and a coupling for, in use, transmitting the ultrasonic energy along the endovascular element from the source to an active tip portion at a distal end of the endovascular element , the coupling being arranged to couple the source to the endovascular element at any of a plurality of discrete operational positions along the length of the endovascular element for said transmission of ultrasonic energy to the active tip portion, the coupling further being arranged to clamp the endovascular element when at any of the operational positions, the endovascular element extending through the coupling and the source and having portions that extend, respectively, proximally and distally from the coupling and the source, wherein the endovascular apparatus further comprises damping features that are mechanically coupled to the endovascular element to attenuate lateral displacement of the endovascular element at positions away from the distal tip portion proximally and/or distally of the transducer . an elongate endovascular element , a source of ultrasonic energy comprising an ultrasonic transducer in a transducer housing , and a coupling for, in use, transmitting the ultrasonic energy along the endovascular element from the source to an active tip portion at a distal end of the endovascular element , the coupling being arranged to couple the source to the endovascular element at any of a plurality of discrete operational positions along the length of the endovascular element for said transmission of ultrasonic energy to the active tip portion, the coupling further being arranged to clamp the endovascular element when at any of the operational positions, the endovascular element extending through the coupling and the source and having portions that extend, respectively, proximally and distally from the coupling and the source, wherein the endovascular apparatus further comprises damping features that are mechanically coupled to the endovascular element to attenuate lateral displacement of the endovascular element at positions away from the distal tip portion proximally and/or distally of the transducer .
A method of stopping a crack in a component of a gas turbine engine for performing an in-situ repair, wherein the method is carried out remotely and comprises the steps of: inserting an integrated repair interface attached to a cable delivery system, wherein the cable delivery system comprises a high temperature conduit configurable to deliver particles therethrough, within a gas turbine engine , wherein the integrated repair interface comprises a repair tool , said repair tool comprising a tip; positioning the tip adjacent to a defect within a surface of the component ; temporarily attaching the tip adj acent to the defect within the surface on the component ; heating the high temperature conduit with a heating element ; supplying a new material to the high temperature conduit from external of the engine , wherein the new material is a particle powder comprising a plurality of solid particles ; maintaining the new material in the high temperature conduit at a delivery temperature within 25% of the melting point of the new material ; supplying the new material into the defect at the delivery temperature to fill the defect ; and heating at least the new material to fuse the new material to the component within the defect . inserting an integrated repair interface attached to a cable delivery system, wherein the cable delivery system comprises a high temperature conduit configurable to deliver particles therethrough, within a gas turbine engine , wherein the integrated repair interface comprises a repair tool , said repair tool comprising a tip; positioning the tip adjacent to a defect within a surface of the component ; temporarily attaching the tip adj acent to the defect within the surface on the component ; heating the high temperature conduit with a heating element ; supplying a new material to the high temperature conduit from external of the engine , wherein the new material is a particle powder comprising a plurality of solid particles ; maintaining the new material in the high temperature conduit at a delivery temperature within 25% of the melting point of the new material ; supplying the new material into the defect at the delivery temperature to fill the defect ; and heating at least the new material to fuse the new material to the component within the defect .
An anhydrous non-solvated crystalline form of -2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1 H -2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ((S)-1-hydroxymethyl-2,2-dimethyl-propyl)-amide, or a pharmaceutically acceptable salt thereof, for use in a method of treating a CB 2 receptor-mediated disorder in an individual in need thereof, the method comprising administering to the individual a therapeutically effective amount of the anhydrous non-solvated crystalline form. for use in a method of treating a CB 2 receptor-mediated disorder in an individual in need thereof, the method comprising administering to the individual a therapeutically effective amount of the anhydrous non-solvated crystalline form.
A moisture-crosslinkable composition comprising, in weight percent (wt%) based on the weight of the composition: (A) 10-79 wt% alkoxysilane functionalized ethylenic polymer; (B) 16-70 wt% polymeric brominated flame retardant of a weight average molecular weight (Mw) equal to or greater than (≥) 1000 grams per mole (g/mol); and (C) 0.01-20 wt% silanol condensation catalyst. (A) 10-79 wt% alkoxysilane functionalized ethylenic polymer; (B) 16-70 wt% polymeric brominated flame retardant of a weight average molecular weight (Mw) equal to or greater than (≥) 1000 grams per mole (g/mol); and (C) 0.01-20 wt% silanol condensation catalyst.
Method for the preparation of an amorphous solid dispersion (ASD) comprising the steps of • providing an aqueous suspension at a temperature between 253 K und 323 K comprising nanoparticles having a solubility in the aqueous suspension of less than 10g/l, water and at least one polymer, • nano-dry-melting of the aqueous suspension comprising nano-particles for a time span between 0.1 seconds and 300 seconds , at a temperature between a) 20K below the glass transition temperature as determine with DSC according to DIN EN ISO 11357-2 at a heating rate of 10 K/min of the solid components of the aqueous suspension comprising nano-particles or 20K below the glass transition temperature of the at least one polymer, depending on what is higher, b) the decomposition temperature of the at least one polymer or the decomposition temperature of the nano-particles, depending which is lower to form the amorphous solid dispersion. • providing an aqueous suspension at a temperature between 253 K und 323 K comprising nanoparticles having a solubility in the aqueous suspension of less than 10g/l, water and at least one polymer, • nano-dry-melting of the aqueous suspension comprising nano-particles for a time span between 0.1 seconds and 300 seconds , at a temperature between a) 20K below the glass transition temperature as determine with DSC according to DIN EN ISO 11357-2 at a heating rate of 10 K/min of the solid components of the aqueous suspension comprising nano-particles or 20K below the glass transition temperature of the at least one polymer, depending on what is higher, b) the decomposition temperature of the at least one polymer or the decomposition temperature of the nano-particles, depending which is lower a) 20K below the glass transition temperature as determine with DSC according to DIN EN ISO 11357-2 at a heating rate of 10 K/min of the solid components of the aqueous suspension comprising nano-particles or 20K below the glass transition temperature of the at least one polymer, depending on what is higher, b) the decomposition temperature of the at least one polymer or the decomposition temperature of the nano-particles, depending which is lower
A combination of an apparatus to detect an image in an image plane (E) and of a material web being a printed paper web, a foil web or a fabric web, wherein the image plane (E) is located on the material web, wherein the apparatus comprises: a first sensor means and a first imaging means ; and at least a second sensor means and at least a second imaging means ; wherein the apparatus is adapted to detect a first detection area and at least a second detection area in the image plane (E), wherein the first sensor means and the first imaging means are disposed such that the first detection area is depicted by the first imaging means and captured by the first sensor means , wherein the second sensor means and the second imaging means are disposed such that the second detection area is depicted by the second imaging means and captured by the second sensor means , wherein the sensor means and the imaging means are disposed such that the second detection area is smaller than the first detection area , wherein the sensor means and the imaging means are disposed such that the second detection area comprises a portion of the first detection area , wherein the first imaging means comprises a first optical axis and the second imaging means comprises a second optical axis , wherein the first optical axis and the second optical axis extend parallel to one another, and wherein the first sensor means is disposed such that a centre (M1) of the first sensor means has an offset to the first optical axis , and/or the second sensor means is disposed such that a centre (M2) of the second sensor means has an offset to the second optical axis . a first sensor means and a first imaging means ; and at least a second sensor means and at least a second imaging means ; wherein the apparatus is adapted to detect a first detection area and at least a second detection area in the image plane (E), wherein the first sensor means and the first imaging means are disposed such that the first detection area is depicted by the first imaging means and captured by the first sensor means , wherein the second sensor means and the second imaging means are disposed such that the second detection area is depicted by the second imaging means and captured by the second sensor means , wherein the sensor means and the imaging means are disposed such that the second detection area is smaller than the first detection area , wherein the sensor means and the imaging means are disposed such that the second detection area comprises a portion of the first detection area , wherein the first imaging means comprises a first optical axis and the second imaging means comprises a second optical axis , wherein the first optical axis and the second optical axis extend parallel to one another, and wherein the first sensor means is disposed such that a centre (M1) of the first sensor means has an offset to the first optical axis , and/or the second sensor means is disposed such that a centre (M2) of the second sensor means has an offset to the second optical axis .
A positive electrode being formed in a plate shape and comprising a plurality of mutually bonded primary particles respectively composed of a lithium composite oxide having a layered rock-salt structure, an average orientation angle of the plurality of primary particles relative to a plate surface direction parallel to a plate surface is more than 0° and less than or equal to 30°, wherein the average orientation angle is an average value of the angle of inclination subtended by the surface of each primary particle relative to the plate surface direction and is determined according to the method indicated in the description, and an aggregate area of primary particles that have an orientation angle relative to the plate surface direction of more than 0° and less than or equal to 30° is greater than or equal to 70% relative to a total area of the plurality of primary particles, when a cross section of the positive electrode is analyzed using EBSD according to the method indicated in the description, wherein the orientation angle is the angle of inclination subtended by the surface of each primary particle relative to the plate surface direction.