mhurhangee/patent-ind-claim-en huggingface dataset:
A system for simulating endoscopic procedures comprising a shell endowed with recesses , one of the recesses being endowed with an orifice for inserting a biliopancreatic system model , the biliopancreatic system model consisting of a papilla , a biliary duct and a pancreatic duct , the papilla being associated to one of the ends of the biliary duct and to the pancreatic duct , wherein the shell is bipartite, characterized in that each part comprises a recess that reproduces half of the esophagus, stomach and duodenum ducts, and the closing of the shell reproduces these ducts in full, the system being configured to selectively simulate, individually or in combination, the endoscopic procedures of selective cannulation, coledocolithotomy, papillotomy, lithotripsy, prosthesis fitting and biliary tract handling wherein the end of the biliary duct associated to the papilla is endowed with a slit to enable the papilla to be cut when the endoscopic procedure is the papillotomy and the biliary duct is configured to be selectively associated to a cystic duct when the endoscopic procedure receive a tumor model .
An arrangement comprising - a first article made of wood based material, the first article having a first length (L1), a first width (W1), and a first thickness (T1), a ratio (L1/T1) of the first length (L1) to the first thickness (T1) being at least ten, and a ratio (W1/T1) of the first width (W1) to the first thickness (T1) being at least five, - a second article made of wood based material, the second article having a second length (L2), a second width (W2), and a second thickness (T2), a ratio (L2/T2) of the second length (L2) to the second thickness (T2) being at least ten, and a ratio (W2/T2) of the second width (W2) to the second thickness (T2) being at least five, and - a first sensor device comprising a chip (IC1) and configured to measure a value indicative of a moisture content, wherein - the first thickness (T1) is unidirectional with the second thickness (T2), and - at least a part of the chip (IC1) is arranged in between the first article and the second article in the direction of the first thickness (T1); characterized in that - the first sensor device is remotely readable and comprises an antenna (Anti) for transferring data, - the first article is a wooden veneer having a thickness from 0.5 mm to 5 mm, - the second article is a wooden veneer having a thickness from 0.5 mm to 5 mm, and the arrangement comprises - a wrapping , which surrounds the first article , the second article , and the first sensor device , and comprises plastic. - a first article made of wood based material, the first article having a first length (L1), a first width (W1), and a first thickness (T1), a ratio (L1/T1) of the first length (L1) to the first thickness (T1) being at least ten, and a ratio (W1/T1) of the first width (W1) to the first thickness (T1) being at least five, - a second article made of wood based material, the second article having a second length (L2), a second width (W2), and a second thickness (T2), a ratio (L2/T2) of the second length (L2) to the second thickness (T2) being at least ten, and a ratio (W2/T2) of the second width (W2) to the second thickness (T2) being at least five, and - a first sensor device comprising a chip (IC1) and configured to measure a value indicative of a moisture content, wherein - the first thickness (T1) is unidirectional with the second thickness (T2), and - at least a part of the chip (IC1) is arranged in between the first article and the second article in the direction of the first thickness (T1); characterized in that - the first sensor device is remotely readable and comprises an antenna (Anti) for transferring data, - the first article is a wooden veneer having a thickness from 0.5 mm to 5 mm, - the second article is a wooden veneer having a thickness from 0.5 mm to 5 mm, and the arrangement comprises - a wrapping , which surrounds the first article , the second article , and the first sensor device , and comprises plastic.
An intermetallic matrix composite comprising: an intermetallic matrix ; and a ceramic reinforcement , wherein the intermetallic matrix comprises, in atomic percent: 28.0 ±2.0 Nb; 27.0 ±2.0 Mo; 27.0 ±2.0 Cr; 9.0 ±2.0 Si; 9.0 ±2.0 Al; and no more than 10.0 other alloying elements and impurities, if any, wherein the other alloying elements and impurities comprise Sn, Re, refractory elements, and/or transition metals; and wherein the intermetallic matrix comprises a eutectic having at least two phases, wherein two phases combine to form at least 60% by volume of the matrix and each is at least 25% by volume of the matrix , and the two phases comprise: a first phase being of the type Cr 2 Nb with C14/C15 crystal structure; and a second phase being of the type Cr 3 Si with A15 crystal structure. an intermetallic matrix ; and a ceramic reinforcement , wherein the intermetallic matrix comprises, in atomic percent: 28.0 ±2.0 Nb; 27.0 ±2.0 Mo; 27.0 ±2.0 Cr; 9.0 ±2.0 Si; 9.0 ±2.0 Al; and no more than 10.0 other alloying elements and impurities, if any, wherein the other alloying elements and impurities comprise Sn, Re, refractory elements, and/or transition metals; and 28.0 ±2.0 Nb; 27.0 ±2.0 Mo; 27.0 ±2.0 Cr; 9.0 ±2.0 Si; 9.0 ±2.0 Al; and no more than 10.0 other alloying elements and impurities, if any, wherein the other alloying elements and impurities comprise Sn, Re, refractory elements, and/or transition metals; and wherein the intermetallic matrix comprises a eutectic having at least two phases, wherein two phases combine to form at least 60% by volume of the matrix and each is at least 25% by volume of the matrix , and the two phases comprise: a first phase being of the type Cr 2 Nb with C14/C15 crystal structure; and a second phase being of the type Cr 3 Si with A15 crystal structure. a first phase being of the type Cr 2 Nb with C14/C15 crystal structure; and a second phase being of the type Cr 3 Si with A15 crystal structure.
Method for aligning a camera in a network of pipes comprising a pipeline, characterized by the steps of: a. introducing the camera into a network of pipes comprising a pipeline, b. recording at least one image representing a view of the pipeline, c. determining the geometry of the pipeline using the at least one image, and d. on the basis of the geometry of the pipeline, determined using the at least one image, aligning the camera by means of at least one actuator in such a way that the optical axis of the camera lies on the axis of the pipeline. a. introducing the camera into a network of pipes comprising a pipeline, b. recording at least one image representing a view of the pipeline, c. determining the geometry of the pipeline using the at least one image, and d. on the basis of the geometry of the pipeline, determined using the at least one image, aligning the camera by means of at least one actuator in such a way that the optical axis of the camera lies on the axis of the pipeline.
A galvo system comprising a single block integrally machined to house and houses at least two galvos there within where each galvo comprises at least one mirror and at least one motor for steering said mirror and is configured to steer a laser beam, each laser beam from a minimal wattage, at 1000 watt power or greater, where the block is further machined with a pair of corresponding openings replicated for each galvo, a first opening for accepting a laser beam from a laser source and a second opening for steering the laser beam out and to the work piece such that the laser beam is directed through the block to the work piece and wherein the block keeps the galvos aligned sufficiently to direct the laser beams onto a work piece to process the work piece in a selected manner, the block controlling mechanical stability and heat build-up sufficiently to avoid distortion of the block and to maintain alignment of and maintenance of the galvo mirrors and having no substantially closed or full internal walls or partitions between adjacent galvos.
A resin pipe member comprising: a pipe main body ; and a flange formed integrally with a shaft end portion of the pipe main body to be fastened to a different member by a fastening member , wherein the flange is arranged so that its fastening surface (S) intersects an axis (C) of the shaft end portion of the pipe main body at an acute angle or an obtuse angle, wherein the flange is formed with a fastening surface portion forming the fastening surface (S), characterized by a first rib facing a surface opposite to the fastening surface (S) of the fastening surface portion , and a plurality of second ribs causing the fastening surface portion and the first rib to be connected with each other, wherein the first rib is provided along a plane (F) orthogonal to the axis (C) of the shaft end portion of the pipe main body .
A modulation method for encoding digital data comprising: generating an amplitude-time modulated sine wave; generating a phase-modulated sine wave in quadrature with the amplitude-time modulated sine wave; summing the amplitude-time modulated sine wave and the phase-modulated sine wave to generate a compound signal wave; wherein the generating an amplitude-time modulated sine wave comprises: programmably selecting phase angles where data bits reside on the amplitude-time modulated sine wave; and encoding of digital representations of the digital data by distortion of the sine wave at the selected phase angles by holding, increasing or decreasing the amplitude at the given position for a short period; the resulting distortion of the sine wave approximating steps on the amplitude-time modulated sine wave; characterized in that the generating a phase-modulated sine wave is programmable to encode a control message as a phase shift regarding the format of the amplitude-time modulated data. generating an amplitude-time modulated sine wave; generating a phase-modulated sine wave in quadrature with the amplitude-time modulated sine wave; summing the amplitude-time modulated sine wave and the phase-modulated sine wave to generate a compound signal wave; wherein the generating an amplitude-time modulated sine wave comprises: programmably selecting phase angles where data bits reside on the amplitude-time modulated sine wave; and encoding of digital representations of the digital data by distortion of the sine wave at the selected phase angles by holding, increasing or decreasing the amplitude at the given position for a short period; programmably selecting phase angles where data bits reside on the amplitude-time modulated sine wave; and encoding of digital representations of the digital data by distortion of the sine wave at the selected phase angles by holding, increasing or decreasing the amplitude at the given position for a short period; the resulting distortion of the sine wave approximating steps on the amplitude-time modulated sine wave; characterized in that the generating a phase-modulated sine wave is programmable to encode a control message as a phase shift regarding the format of the amplitude-time modulated data.
A resonant MEMS structure comprising at least two coaxial rings , wherein: adjacent coaxial rings of the at least two coaxial rings have adjacent peripheries and are attached together by a plurality of connection structures regularly arranged along said adjacent peripheries ; characterized in that : a first ring of said adjacent coaxial rings has a first ring portion with a first radial thickness and a second ring portion (22", 22"c), at a first connection structure of said plurality of connections structures with a second radial thickness smaller than said first radial thickness; wherein said second ring portion (22", 22"c) is formed by a first radial recess (34; 62) developing from a periphery of said first ring distal from said first connection structure toward said first connection structure ; the second ring portion (22", 22"c) being arranged to make the resonant MEMs structure less sensitive to vibration and shock compared to a same resonant MEMs structure where said second ring portion has a same radial thickness as the first ring portion . adjacent coaxial rings of the at least two coaxial rings have adjacent peripheries and are attached together by a plurality of connection structures regularly arranged along said adjacent peripheries ; characterized in that : a first ring of said adjacent coaxial rings has a first ring portion with a first radial thickness and a second ring portion (22", 22"c), at a first connection structure of said plurality of connections structures with a second radial thickness smaller than said first radial thickness; wherein said second ring portion (22", 22"c) is formed by a first radial recess (34; 62) developing from a periphery of said first ring distal from said first connection structure toward said first connection structure ; the second ring portion (22", 22"c) being arranged to make the resonant MEMs structure less sensitive to vibration and shock compared to a same resonant MEMs structure where said second ring portion has a same radial thickness as the first ring portion .
A non-reducing, non-oxidizing reshaping composition for keratin fibers, preferably human keratin fibers, more preferably human hair, having a pH in the range of 7 to 12, and comprising: a) one or more organic alkalizing agent(s) having a pK a of less than 9.0, b) one or more lipophilic compound(s) being liquid at 25°C and atmospheric pressure, at a total concentration in the range of 10% to 80% by weight, calculated to the total weight of the composition, c) one or more surfactant(s), d) one or more thickening agent(s), wherein the compound according to a) is tris-(hydroxymethyl)-aminomethane, 2-(4-(2-Hydroxyethyl)-1-piperazinyl)-ethansulfonic acid, and/or their salt(s), and/or their mixtures. a) one or more organic alkalizing agent(s) having a pK a of less than 9.0, b) one or more lipophilic compound(s) being liquid at 25°C and atmospheric pressure, at a total concentration in the range of 10% to 80% by weight, calculated to the total weight of the composition, c) one or more surfactant(s), d) one or more thickening agent(s),
Foundation construction machine having - a carrier unit , - an upper carriage rotatably arranged about a vertical axis on the carrier unit , - a mast , - mast supporting booms which connect the upper carriage to the mast , said mast being radially adjustable with respect to the upper carriage by pivoting the mast supporting booms about horizontally directed axes, and - an actuation unit which is adjustable with respect to the ground working tool, characterized in that - at least one detecting means (51 to 64) for detecting status data of the foundation construction machine and - a computer unit are provided, - wherein for detecting status data -- at least one detecting means for detecting a position of the mast supporting boom which connects the mast to the upper carriage is provided as a measure for a radial position of the mast relative to the upper carriage , and -- at least one detecting means for detecting an angle of rotation of the upper carriage is provided relative to the carrier unit , and -- wherein at least one adjustment range of the actuation unit can be detected by the computer unit on the basis of the detected status data, in which adjustment range the actuation unit is adjustable at a given safety against tilting of the foundation construction machine . - a carrier unit , - an upper carriage rotatably arranged about a vertical axis on the carrier unit , - a mast , - mast supporting booms which connect the upper carriage to the mast , said mast being radially adjustable with respect to the upper carriage by pivoting the mast supporting booms about horizontally directed axes, and - an actuation unit which is adjustable with respect to the ground working tool, characterized in that - at least one detecting means (51 to 64) for detecting status data of the foundation construction machine and - a computer unit are provided, - wherein for detecting status data -- at least one detecting means for detecting a position of the mast supporting boom which connects the mast to the upper carriage is provided as a measure for a radial position of the mast relative to the upper carriage , and -- at least one detecting means for detecting an angle of rotation of the upper carriage is provided relative to the carrier unit , and -- wherein at least one adjustment range of the actuation unit can be detected by the computer unit on the basis of the detected status data, in which adjustment range the actuation unit is adjustable at a given safety against tilting of the foundation construction machine . -- at least one detecting means for detecting a position of the mast supporting boom which connects the mast to the upper carriage is provided as a measure for a radial position of the mast relative to the upper carriage , and -- at least one detecting means for detecting an angle of rotation of the upper carriage is provided relative to the carrier unit , and -- wherein at least one adjustment range of the actuation unit can be detected by the computer unit on the basis of the detected status data, in which adjustment range the actuation unit is adjustable at a given safety against tilting of the foundation construction machine .
A gas turbine engine assembly comprising: a first spool having a first turbine operatively mounted to a first turbine shaft ; a second spool having a second turbine operatively mounted to a second turbine shaft , the first and second turbines mounted for rotation about a common rotational axis (A) within an engine static structure, the first and second turbine shafts coaxial with one another; first and second towershafts respectively coupled to the first and second turbine shafts ; an accessory drive gearbox with a first set of gears; a compressor driven by the first towershaft ; a starter generator assembly ; and a transmission coupling the starter generator assembly to the first set of gears, the transmission transitionable between a first mode where the starter generator assembly is driven at a first speed relative to the second towershaft , and a second mode where the starter generator assembly is driven at a different, second speed relative to the second towershaft , characterised in that : the gas turbine engine assembly further comprises a first clutch disposed between the first towershaft and the starter generator assembly , the first clutch configured to enable the starter generator assembly to drive the first spool through the accessory drive gearbox , and a second clutch disposed between the second towershaft and the starter generator assembly , the second clutch configured to enable the second spool to drive the starter generator assembly through the accessory drive gearbox . a first spool having a first turbine operatively mounted to a first turbine shaft ; a second spool having a second turbine operatively mounted to a second turbine shaft , the first and second turbines mounted for rotation about a common rotational axis (A) within an engine static structure, the first and second turbine shafts coaxial with one another; first and second towershafts respectively coupled to the first and second turbine shafts ; an accessory drive gearbox with a first set of gears; a compressor driven by the first towershaft ; a starter generator assembly ; and a transmission coupling the starter generator assembly to the first set of gears, the transmission transitionable between a first mode where the starter generator assembly is driven at a first speed relative to the second towershaft , and a second mode where the starter generator assembly is driven at a different, second speed relative to the second towershaft ,
A method for displaying annotations on a design line provided on the surface of an anatomical map, comprising: receiving an anatomical map of a patient organ, the anatomical map comprising properties obtained at respective locations on a first surface of the organ; receiving a design line produced on a second surface of the anatomical map , wherein the design line comprises a planning of one or more ablation lines for ablating tissue in the first surface of the organ; selecting one or more of the properties that, when falling along the design line , will be visualized thereon; and visualizing the one or more properties falling along the design line , wherein visualizing the properties comprises applying, to the design line , one or more types of annotations indicative of a respective property of the one or more properties. receiving an anatomical map of a patient organ, the anatomical map comprising properties obtained at respective locations on a first surface of the organ; receiving a design line produced on a second surface of the anatomical map , wherein the design line comprises a planning of one or more ablation lines for ablating tissue in the first surface of the organ; selecting one or more of the properties that, when falling along the design line , will be visualized thereon; and visualizing the one or more properties falling along the design line , wherein visualizing the properties comprises applying, to the design line , one or more types of annotations indicative of a respective property of the one or more properties.
A method for rating a polymerization process, comprising: determining a first cracking index value for a first polymerization process; changing one or more parameters of the first polymerization process to provide a second polymerization process; determining a second cracking index value for the second polymerization process; and rating the first polymerization process and the second polymerization process based upon the first cracking index value and the second cracking index value, wherein a greater relative cracking index value corresponds to a higher relative rating, and wherein the cracking index values for the polymerization processes are respectively expressed as I pc = weight of polymer produced weight of catalyst utilized − D vp 3 ρ p − D vc 3 ρ c D vc 3 ρ c weight of polymer produced weight of catalyst utilized where I pc is the cracking index value, D vc is a catalyst volume-averaged particle size, ρ c is a catalyst granular particle density, D vp is a volume-averaged particle size of polymer produced, and ρ p is a granular particle density of polymer produced. determining a first cracking index value for a first polymerization process; changing one or more parameters of the first polymerization process to provide a second polymerization process; determining a second cracking index value for the second polymerization process; and rating the first polymerization process and the second polymerization process based upon the first cracking index value and the second cracking index value, wherein a greater relative cracking index value corresponds to a higher relative rating, and wherein the cracking index values for the polymerization processes are respectively expressed as I pc = weight of polymer produced weight of catalyst utilized − D vp 3 ρ p − D vc 3 ρ c D vc 3 ρ c weight of polymer produced weight of catalyst utilized where I pc is the cracking index value, D vc is a catalyst volume-averaged particle size, ρ c is a catalyst granular particle density, D vp is a volume-averaged particle size of polymer produced, and ρ p is a granular particle density of polymer produced.