mhurhangee/patent-ind-claim-en huggingface dataset:
An adjustment subassembly for a steering column assembly comprising: a. a telescope plate adapted to be secured to a column tube of the steering column assembly ; b. a locking pin having one or more features at one end that are adapted to engage with the telescope plate ; c. a preload plate adapted to receive at least a portion of the locking pin at an opposing end of the locking pin ; and d. a user operating device for causing engagement and disengagement of the locking pin and the telescope plate through contact with the preload plate . a. a telescope plate adapted to be secured to a column tube of the steering column assembly ; b. a locking pin having one or more features at one end that are adapted to engage with the telescope plate ; c. a preload plate adapted to receive at least a portion of the locking pin at an opposing end of the locking pin ; and d. a user operating device for causing engagement and disengagement of the locking pin and the telescope plate through contact with the preload plate .
Endoluminal device comprising at least one composite yarn, wherein the composite yarn comprises at least one polymer yarn and at least one alloy wire, wherein the at least one polymer yarn comprises or consists of a biodegradable polymer selected from the group consisting of polylactide, polyglycolide, poly(3-hydroxybutyrate), poly(4-hydroxybutyrate), polycaprolactone, poly(trimethylene carbonate), copolymer comprising repeating monomer units selected from the group consisting of lactide units, glycolide units, 6-hydroxyhexanoic acid units, 3-hydroxybutyrate units, 4-hydroxybutyrate units, trimethylencarbonate units and a combination of at least two of said monomer units, and a blend of at least two of said polymers, and the at least one alloy wire comprises or consists of a biocompatible alloy selected from the group consisting of magnesium alloy, zinc alloy, iron alloy, cobalt-chromium alloy and combinations of at least two of said alloys, characterized in that the at least one composite yarn is a wrapped yarn, wherein the at least one polymer yarn is spirally wrapped by the at least one alloy wire.
Mounting system for the arrangement of, for example, electrical devices in switchgear cabinets , wherein the mounting system comprises a mounting plate which can be arranged in the switchgear cabinet and at least one mounting module with a mounting bar on the front side of the mounting plate and the mounting bar has at least one carrier device , by means of which at least one device can be attached to the mounting bar , and wherein the mounting system includes a clamping element , having a first portion which can be brought into contact with the rear side of the mounting plate and a second portion on the front side of the mounting plate , which can be attached to the mounting module so that the mounting plate can be clamped between the mounting module and the first section of the clamping element and thereby the mounting module and can be fixed to the mounting plate in a clamping arrangement, characterised in that the clamping element engages a lateral edge of the mounting plate and the first section of the clamping element can be brought into planar abutment with the rear side of the mounting plate .
Hydraulic block for a hydraulic power-assisted vehicle brake system, having a connector for a brake fluid reservoir, having a master cylinder bore , having a receptacle for a pedal travel simulator , wherein the connector for the brake fluid reservoir and the receptacle for the pedal travel simulator are disposed in mutually opposite faces of the hydraulic block , and wherein a return line of the pedal travel simulator that connects the connector for the brake fluid reservoir, the master brake cylinder bore and the receptacle for the pedal travel simulator in the hydraulic block has two bores , said two bores being mutually parallel and parallel to the receptacle for the pedal travel simulator , one of said bores communicating with the receptacle for the pedal travel simulator , and the other of said bores communicating with the connector for the brake fluid reservoir, and in the hydraulic block has a transverse bore that connects the two parallel bores , characterized in that the receptacle for the pedal travel simulator has an undercut or a groove into which one of the two parallel bores of the return line opens.
An insulin derivative, which insulin derivative is an acylated analogue of human insulin, which analogue is [A22K, desB27, B29R, desB30] relative to human insulin; and which insulin analogue is derivatized by acylation of the epsilon amino group of the lysine residue at the A22 position with a group of Formula II [Acyl]-[Linker]- wherein the Linker group is an amino acid chain composed of from 1 to 10 amino acid residues selected from -gGlu- and -OEG-; wherein gGlu represents a gamma glutamic acid residue; OEG represents the residue of 8-amino-3,6-dioxaoctanoic acid (i.e. a group of the formula -NH-(CH 2 ) 2 -O-(CH 2 ) 2 -O-CH 2 -CO-); which amino acid residues may be present in any order; and which amino acid chain comprises at least one gGlu residue; and wherein the Acyl group is a residue of an α,ω-di-carboxylic acid selected from 1,14-tetradecanedioic acid; 1,15-pentadecanedioic acid; and 1,16-hexadecanedioic acid; which acylated analogue, may additionally comprise the A14E and/or B3E, or B3Q substitutions. wherein the Linker group is an amino acid chain composed of from 1 to 10 amino acid residues selected from -gGlu- and -OEG-; wherein gGlu represents a gamma glutamic acid residue; OEG represents the residue of 8-amino-3,6-dioxaoctanoic acid (i.e. a group of the formula -NH-(CH 2 ) 2 -O-(CH 2 ) 2 -O-CH 2 -CO-); which amino acid residues may be present in any order; and which amino acid chain comprises at least one gGlu residue; and gGlu represents a gamma glutamic acid residue; OEG represents the residue of 8-amino-3,6-dioxaoctanoic acid (i.e. a group of the formula -NH-(CH 2 ) 2 -O-(CH 2 ) 2 -O-CH 2 -CO-); which amino acid residues may be present in any order; and which amino acid chain comprises at least one gGlu residue; and wherein the Acyl group is a residue of an α,ω-di-carboxylic acid selected from 1,14-tetradecanedioic acid; 1,15-pentadecanedioic acid; and 1,16-hexadecanedioic acid; 1,14-tetradecanedioic acid; 1,15-pentadecanedioic acid; and 1,16-hexadecanedioic acid; which acylated analogue, may additionally comprise the A14E and/or B3E, or B3Q substitutions.
A method for firing a green honeycomb ceramic body, the method comprising: heating the green honeycomb ceramic body from room temperature to a first temperature of less than or equal to about 350°C, wherein heating the green honeycomb ceramic body from room temperature to the first temperature comprises a heating rate of from about 80°C/hr to about 300°C/hr; heating the green honeycomb ceramic body from the first temperature to a second temperature of greater than or equal to about 800°C, wherein heating the green honeycomb ceramic body from the first temperature to the second temperature comprises a heating rate of from about 90°C/hr to about 300°C/hr; and heating the green honeycomb ceramic body from the second temperature to a third temperature of greater than or equal to about 1000°C, wherein the green honeycomb ceramic body has a diameter of from greater than or equal to about 10.16 cm (4.0 inches) to less than or equal to about 22.86 cm (9.0 inches), wherein the green honeycomb ceramic body comprises a carbon-based pore former in a concentration of from greater than or equal to about 10% to less than or equal to about 48% by weight, and wherein the green honeycomb ceramic body comprises aluminum raw materials for forming an aluminum titanate ceramic body; characterized by heating the green honeycomb ceramic body from the second temperature to the third temperature comprises heating the green honeycomb ceramic body at a heating rate of less than or equal to about 15°C/hr. heating the green honeycomb ceramic body from room temperature to a first temperature of less than or equal to about 350°C, wherein heating the green honeycomb ceramic body from room temperature to the first temperature comprises a heating rate of from about 80°C/hr to about 300°C/hr; heating the green honeycomb ceramic body from the first temperature to a second temperature of greater than or equal to about 800°C, wherein heating the green honeycomb ceramic body from the first temperature to the second temperature comprises a heating rate of from about 90°C/hr to about 300°C/hr; and heating the green honeycomb ceramic body from the second temperature to a third temperature of greater than or equal to about 1000°C, wherein the green honeycomb ceramic body has a diameter of from greater than or equal to about 10.16 cm (4.0 inches) to less than or equal to about 22.86 cm (9.0 inches), wherein the green honeycomb ceramic body comprises a carbon-based pore former in a concentration of from greater than or equal to about 10% to less than or equal to about 48% by weight, and wherein the green honeycomb ceramic body comprises aluminum raw materials for forming an aluminum titanate ceramic body; characterized by heating the green honeycomb ceramic body from the second temperature to the third temperature comprises heating the green honeycomb ceramic body at a heating rate of less than or equal to about 15°C/hr.
A printed fabric produced by applying, to a fabric, a printing agent comprising a pigment, a pigment dispersant, water, an organic solvent, and a binder resin, the pigment dispersant being a polymer (A) including an anionic group, the polymer (A) having a solubility in water of 0.1 g/100 ml or less, a number-average molecular weight of 1000 to 6000, and an acid value of 40 to 400 mgKOH/g, wherein the polymer (A) is a block polymer constituted by a polymer block including a hydrophobic group and a polymer block including an anionic group.
A method performed by a user equipment configured for operation in a narrowband wireless communication system , the method comprising: detecting receipt of a narrowband positioning reference signal that comprises a narrowband reference signal sequence, wherein the narrowband reference signal sequence is a subsequence of a wideband reference signal sequence, wherein the wideband reference signal sequence is configured for a wideband frequency bandwidth that is wider than a maximum frequency bandwidth defined for the narrowband wireless communication system and wherein the narrowband reference signal sequence is a subsequence at a position within the wideband reference signal sequence that depends on a relative position of the narrowband wireless communication system within a system bandwidth of a wideband wireless communication system for which the wideband reference signal is configured; and performing a positioning measurement using the narrowband positioning reference signal . detecting receipt of a narrowband positioning reference signal that comprises a narrowband reference signal sequence, wherein the narrowband reference signal sequence is a subsequence of a wideband reference signal sequence, wherein the wideband reference signal sequence is configured for a wideband frequency bandwidth that is wider than a maximum frequency bandwidth defined for the narrowband wireless communication system and wherein the narrowband reference signal sequence is a subsequence at a position within the wideband reference signal sequence that depends on a relative position of the narrowband wireless communication system within a system bandwidth of a wideband wireless communication system for which the wideband reference signal is configured; and performing a positioning measurement using the narrowband positioning reference signal .
A power steering assembly for a hydraulic power steering system of motor vehicles, comprising at least one hydraulic servo valve with a control member for controlling the steering assistance in accordance with a relative rotation of an input shaft with respect to an output shaft , and at least one actuator for the relative adjustment of the control member with respect to the input shaft or output shaft in order to influence the steering assistance characteristic, characterized by a summation gearing having a first rotatable drive member that is in operative engagement with the control member , and a second rotatable drive member that is in operative engagement with an output element of the actuator , and an output member , wherein the summation gearing superposes a rotation of the first drive member with a rotation of the second drive member and drives, via the output member , an epicyclic gearing with at least one planetary gear , which is in operative engagement together with both the input shaft or output shaft and with the control member and can be rotated both about a planetary axis fixed with respect to the frame and about its own axis of rotation orbiting about the planetary axis , in such a way that a rotation of the first drive member causes a rotation of the own axis of rotation of the planetary gear orbiting about the planetary axis in such a way that no rotation of the planetary gear about its own axis of rotation occurs as a consequence, but a rotation of the second drive member causes a rotation of the planetary gear about its own axis of rotation , wherein the rotation of the planetary gear about its own axis of rotation causes a relative rotation of the input shaft or output shaft with respect to the control member .
An aberration characterization method for characterizing at least one optical aberration of an optical system of an image acquisition device, the optical system having an associated optical transfer function that is dependent on the aberrations, the image acquisition device being capable of acquiring at least two images in a field of image capture in a manner so as to introduce a differential aberration between the two images, each image being defined by a digital image signal, the method comprising the following steps: - obtaining of a first image and a second image of a same given zone of the field of image capture, the second image being acquired with a differential aberration relative to the first image, each image acquisition having an associated optical transfer function; - using of a convolutional image formation model for the images acquired using an optical transfer function that is dependent on at least one optical aberration (Δaberr); - calculation of at least one parameter characterizing at least one optical aberration by minimisation of a functional, defined using the convolutional model of image formation, expressed as a function of the first and second images acquired, from a modelling of the optical transfer functions associated with the two image acquisitions dependent on the one or more optical aberrations to be characterized as well as on the differential aberration (Δaberr), the method being characterized in that the optical system to be characterised comprises at least one set of detector arrays (40 1 , 40 2,.. , 40 N ) arranged in a staggered configuration, and in which said first and second images belong to the zones of overlap between adjacent detector arrays, and wherein said second image is acquired by a second detector array from the at least one set of detector arrays with a differential aberration with respect to said first image acquired by a first detector array from the at least one set of detector arrays. - obtaining of a first image and a second image of a same given zone of the field of image capture, the second image being acquired with a differential aberration relative to the first image, each image acquisition having an associated optical transfer function; - using of a convolutional image formation model for the images acquired using an optical transfer function that is dependent on at least one optical aberration (Δaberr); - calculation of at least one parameter characterizing at least one optical aberration by minimisation of a functional, defined using the convolutional model of image formation, expressed as a function of the first and second images acquired, from a modelling of the optical transfer functions associated with the two image acquisitions dependent on the one or more optical aberrations to be characterized as well as on the differential aberration (Δaberr),
A leaching method of metal bearing material or metal mineral concentrates comprising the steps: a. Adhering mineral concentrates or a metal bearing material in a stable manner to a support to form agglomerates; wherein said support is characterized in that it is made of non porous polypropylene particles between 3 and 20 mm, of specific gravity less than 1, stable in strongly acidic solutions of pH1 - pH4, resistant to abrasion, and does not deform at temperatures up to 60°C;b. Transporting the agglomerates to a processing site; c. Loading the agglomerates onto a packed bed reactor or forming a heap of agglomerates; d. Leaching the mineral concentrate or metal bearing material by irrigating with chemical and/or biological agents present in an acidic solution; e. Optionally, supplying forced air to the reactor or heap of agglomerates in a counter-current direction relative to that of the irrigation solution; f. Recovering the loaded solution or "PLS" that percolated in the reactor or heap for its subsequent treatment; g. Recovering the solid residuals of the reactor or heap; h. Separating the residual solids, unleached mineral concentrates and any formed precipitates; i. Reusing the support in another cycle of the leaching process comprising steps d - h. a. Adhering mineral concentrates or a metal bearing material in a stable manner to a support to form agglomerates; wherein said support is characterized in that it is made of non porous polypropylene particles between 3 and 20 mm, of specific gravity less than 1, stable in strongly acidic solutions of pH1 - pH4, resistant to abrasion, and does not deform at temperatures up to 60°C;b. Transporting the agglomerates to a processing site; c. Loading the agglomerates onto a packed bed reactor or forming a heap of agglomerates; d. Leaching the mineral concentrate or metal bearing material by irrigating with chemical and/or biological agents present in an acidic solution; e. Optionally, supplying forced air to the reactor or heap of agglomerates in a counter-current direction relative to that of the irrigation solution; f. Recovering the loaded solution or "PLS" that percolated in the reactor or heap for its subsequent treatment; g. Recovering the solid residuals of the reactor or heap; h. Separating the residual solids, unleached mineral concentrates and any formed precipitates; i. Reusing the support in another cycle of the leaching process comprising steps d - h.
A method for forming a semiconductor device comprising vertical channel field-effect transistor, FET, devices, the method comprising: forming on a substrate a plurality of semiconductor structures as vertically oriented nanosheets or nanowires protruding vertically from a lower source/drain semiconductor layer of the substrate, the semiconductor structures being arranged in an array having a plurality of rows (R1, R2, R3) and columns (C1, C2, C3); between at least a subset of the rows, etching metal line trenches into said lower source/drain semiconductor layer and parallel to the rows; forming metal lines in said metal line trenches , in contact with said lower source/drain layer ; forming gate structures enclosing semiconductor structure channel portions located above the lower source/drain layer ; and forming upper source/drain metal contacts on semiconductor structure upper source/drain portions located above the channel portions; characterised in that the method further comprises, prior to forming said metal line trenches and said metal lines , forming an insulating spacer layer on the sidewalls of the semiconductor structures arranged in said subset of the rows. forming on a substrate a plurality of semiconductor structures as vertically oriented nanosheets or nanowires protruding vertically from a lower source/drain semiconductor layer of the substrate, the semiconductor structures being arranged in an array having a plurality of rows (R1, R2, R3) and columns (C1, C2, C3); between at least a subset of the rows, etching metal line trenches into said lower source/drain semiconductor layer and parallel to the rows; forming metal lines in said metal line trenches , in contact with said lower source/drain layer ; forming gate structures enclosing semiconductor structure channel portions located above the lower source/drain layer ; and forming upper source/drain metal contacts on semiconductor structure upper source/drain portions located above the channel portions; characterised in that the method further comprises, prior to forming said metal line trenches and said metal lines , forming an insulating spacer layer on the sidewalls of the semiconductor structures arranged in said subset of the rows.
An exhaust gas treatment equipment for a marine diesel engine using fuel oil, the equipment comprising: an electric precipitation means having a tubular collecting unit (11-1), the tubular collecting unit (11-1) including a combination of collecting modules, each having a discharge electrode (1-2) for charging particulate matter contained in exhaust gas of a diesel engine using fuel oil and a tubular precipitation electrode for collecting the particulate matter charged, the discharge electrode (1-2) having a main electrode (1-2a) disposed in the tubular collecting unit (11-1) in a tube axial direction and a plurality of electrodes arranged at intervals on the main electrode (1-2a) and projecting radially; a separating and collecting means for separating, collecting and precipitating the particulate matter detached from the tubular collecting unit (11-1), separately from the electric precipitation means ; an exhaust gas delivery pipe for exhaust gases with a low concentration of particulate matter provided near an axial center of the tubular collecting unit (11-1) on a downstream side thereof; and an exhaust gas delivery portion (1-1b) for exhaust gases with a high concentration of particulate matter provided near an inner circumferential surface of the tubular collecting unit (11-1) on the downstream side thereof and connected to the separating and collecting means for collecting and precipitating the particulate matter, characterized in that on a upstream side in the tubular collecting unit (11-1) including a main collecting pipe (1-1) that has the precipitation electrode and the discharge electrode (1-2) therein and has a predetermined length and a constant diameter, tubular collecting modules of said collecting modules are arranged in combination in the main collecting pipe (1-1) in the tube axial direction, each of the tubular collecting modules having the discharge electrode (1-2) with a different diameter arranged and the tubular precipitation electrode with a diameter smaller than the main collecting pipe (1-1), in that on the downstream in the tubular collecting unit (11-1), a collecting module of said collecting modules including the discharge electrode (1-2) and the main collecting pipe (1-1) is disposed, and in that in the tubular collecting unit (11-1), a tubular collecting module with a smallest diameter disposed on an exhaust gas upstream side and another tubular collecting module with a larger diameter sequentially disposed toward downstream.