mhurhangee/patent-ind-claim-en huggingface dataset:
A composite airfoil comprising: a root section comprising a first surface; an intermediate section comprising a first surface and coupled with the root section at a first end; a tip section comprising a first surface and coupled at a first end with a second end of the intermediate section; and a conductive material layer coupled to at least one of the first surface of the root section, the first surface of the intermediate section, or the first surface of the tip section, the conductive material comprising: a first polymer, a second polymer, and a sulfonic acid; wherein the sulfonic acid comprises a naphthyl sulfonic acid, a phenyl sulfonic acid, a pyrenyl sulfonic acid, an anthracenyl sulfonic acid, or mixtures thereof, wherein the naphthyl sulfonic acid is of Formula (I): wherein each benzene ring of Formula (I) is unsubstituted, monosubstituted, disubstituted, trisubstituted, or tetrasubstituted with R 1 or R 2 , as appropriate, where each instance of R 1 is independently selected from alkyl, aryl, amino, nitro, and halo and each instance of R 2 is independently selected from alkyl, aryl, amino, nitro, and halo; and wherein the phenyl sulfonic acid, the anthracenyl sulfonic acid, and the pyrenyl sulfonic acid is independently unsubstituted, monosubstituted, or multiplysubstituted, where each instance of substitution is independently alkyl, aryl, amino, nitro, or halo. a root section comprising a first surface; an intermediate section comprising a first surface and coupled with the root section at a first end; a tip section comprising a first surface and coupled at a first end with a second end of the intermediate section; and a conductive material layer coupled to at least one of the first surface of the root section, the first surface of the intermediate section, or the first surface of the tip section, the conductive material comprising: a first polymer, a second polymer, and a sulfonic acid; wherein the sulfonic acid comprises a naphthyl sulfonic acid, a phenyl sulfonic acid, a pyrenyl sulfonic acid, an anthracenyl sulfonic acid, or mixtures thereof, a first polymer, a second polymer, and a sulfonic acid; wherein the sulfonic acid comprises a naphthyl sulfonic acid, a phenyl sulfonic acid, a pyrenyl sulfonic acid, an anthracenyl sulfonic acid, or mixtures thereof, wherein the naphthyl sulfonic acid is of Formula (I): wherein each benzene ring of Formula (I) is unsubstituted, monosubstituted, disubstituted, trisubstituted, or tetrasubstituted with R 1 or R 2 , as appropriate, where each instance of R 1 is independently selected from alkyl, aryl, amino, nitro, and halo and each instance of R 2 is independently selected from alkyl, aryl, amino, nitro, and halo; and wherein the phenyl sulfonic acid, the anthracenyl sulfonic acid, and the pyrenyl sulfonic acid is independently unsubstituted, monosubstituted, or multiplysubstituted, where each instance of substitution is independently alkyl, aryl, amino, nitro, or halo.
An assay cartridge for analyzing a sample collected with an applicator stick comprising a shaft and a sample collection head , said cartridge comprising a sample chamber having an elongated cavity that has a first region and a second region, wherein the sample chamber comprises a sample introduction port, wherein the first region is proximate to the sample introduction port and the second region is distal to the sample introduction port, wherein said first and second regions are oriented at an angle with respect to each other and said angle is selected to bend said shaft upon insertion of said applicator stick into said sample chamber and promote fracture of said shaft , and wherein said sample chamber comprises a sample head retention feature located at a transition between the first region and the second region, wherein said sample head retention feature is a shelf , wherein said shelf is a stepped discontinuity in an internal surface of said sample chamber , wherein the sample chamber is curved, and wherein a radius of curvature of the sample chamber in the first region is less than a radius of curvature of the sample chamber in the second region, and the shelf is located on a outer curved surface of curved surfaces defining the sample chamber , such that when the shaft breaks in the sample chamber , strain is released and an end of a fragment attached to the collection head is pushed against the outer curved surface and is locked in place by the shelf .
A decoding method for decoding a block of an image comprising: - determining a split mode for said block in a set of split modes, wherein said set of split modes comprises at least one split mode for asymmetrically splitting said block into at least two sub-blocks; - splitting said block into at least two sub-blocks responsive to said split mode; - decoding each of the at least two sub-blocks, wherein determining said split mode comprises: - decoding a first syntax element (btSplitOrientation) specifying whether said block is split vertically or horizontally; - decoding a second syntax element (horAsymmetricSplitFlag, verAsymmetricSplitFlag) specifying whether said block is split symmetrically or asymmetrically, wherein decoding said second syntax element comprises determining a context for decoding said second syntax element, wherein said context is function of information representative of at least one neighboring block of said block; and context-based arithmetic decoding said second syntax element responsive to said determined context; and - decoding a split mode syntax element specifying a position of the asymmetric split (vertical_asymmetric_type /horizontal_asymmetric type) in the case where said second syntax element specifies that said block is split asymmetrically. - determining a split mode for said block in a set of split modes, wherein said set of split modes comprises at least one split mode for asymmetrically splitting said block into at least two sub-blocks; - splitting said block into at least two sub-blocks responsive to said split mode; - decoding each of the at least two sub-blocks, wherein determining said split mode comprises: - decoding a first syntax element (btSplitOrientation) specifying whether said block is split vertically or horizontally; - decoding a second syntax element (horAsymmetricSplitFlag, verAsymmetricSplitFlag) specifying whether said block is split symmetrically or asymmetrically, wherein decoding said second syntax element comprises determining a context for decoding said second syntax element, wherein said context is function of information representative of at least one neighboring block of said block; and context-based arithmetic decoding said second syntax element responsive to said determined context; and - decoding a split mode syntax element specifying a position of the asymmetric split (vertical_asymmetric_type /horizontal_asymmetric type) in the case where said second syntax element specifies that said block is split asymmetrically.
Hardener composition comprising 3-aminomethyl-3,5,5-trimethylcyclohexane, at least one further cycloaliphatic amine which is reactive to epoxy groups, and at least one salt (S), the salt (S) being selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulfonic acid, and combinations thereof, characterized in that 3-aminomethyl-3,5,5-trimethylcyclohexane is contained in the hardener composition in a proportion of at least 10 wt.%, based on the total weight of all amines which are reactive to epoxy groups. the salt (S) being selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulfonic acid, and combinations thereof, characterized in that 3-aminomethyl-3,5,5-trimethylcyclohexane is contained in the hardener composition in a proportion of at least 10 wt.%, based on the total weight of all amines which are reactive to epoxy groups.
A polycrystalline silicon obtained by synthesis by the Siemens method followed by thermal treatment in a temperature range of 1000 to 1300°C for a time period of 5 to 6 hours, wherein crystal grains having Miller index planes <111> and <220> as a principal plane are grown by the thermal treatment, and wherein X-ray diffraction intensity from either of the Miller index planes <111> and <220> after the thermal treatment is 1.5 times or less X-ray diffraction intensity before the thermal treatment, and an average crystal grain size after the thermal treatment is three times more an average crystal grain size before the thermal treatment.
A method for acquiring data for a manufacture of a dental prosthesis, with the following steps of the method - placing a bite element with at least one scan marker of a bite fork in the mouth of a patient in a manner such that the scan marker is disposed in the region of the front teeth, wherein the bite fork furthermore has a scanning element with at least one scanning body which is disposed outside the mouth when the bite element has been inserted, wherein the relative position of the scanning body with respect to the scan marker is known, - three-dimensionally scanning the face with the scanning element , - associating the position of the at least one scanning body with important points of the face or skull, for example from the group formed by jaw bones, nose, eyes, marks applied to the face, - separating the bite element from the scanning element and removing the bite element , - intraorally scanning the oral cavity with the inserted bite element , - processing the acquired data with a data processing device to form a virtual model and accurately determining the position of the lower jaw with respect to the upper jaw, - immediately transmitting the virtual model to a manufacturing machine in order to produce the dental prosthesis, - producing the dental prosthesis from the virtual model. - placing a bite element with at least one scan marker of a bite fork in the mouth of a patient in a manner such that the scan marker is disposed in the region of the front teeth, wherein the bite fork furthermore has a scanning element with at least one scanning body which is disposed outside the mouth when the bite element has been inserted, wherein the relative position of the scanning body with respect to the scan marker is known, - three-dimensionally scanning the face with the scanning element , - associating the position of the at least one scanning body with important points of the face or skull, for example from the group formed by jaw bones, nose, eyes, marks applied to the face, - separating the bite element from the scanning element and removing the bite element , - intraorally scanning the oral cavity with the inserted bite element , - processing the acquired data with a data processing device to form a virtual model and accurately determining the position of the lower jaw with respect to the upper jaw, - immediately transmitting the virtual model to a manufacturing machine in order to produce the dental prosthesis, - producing the dental prosthesis from the virtual model.
A memory device structure, comprising: a substrate ; a memory stacked structure formed on the substrate by stacking a first electrode layer , a memory material layer , and a second electrode layer , wherein the memory material layer and the first electrode layer have a tilted sidewall , and the tilted sidewall is indented with respect to a sidewall of the second electrode layer ; ; and a spacer ) disposed on the tilted sidewall , wherein the memory material layer comprises a resistive memory material, the memory device structure being characterized in that the width of the first electrode layer equal to or less than the width of the second electrode layer a substrate ; a memory stacked structure formed on the substrate by stacking a first electrode layer , a memory material layer , and a second electrode layer , wherein the memory material layer and the first electrode layer have a tilted sidewall , and the tilted sidewall is indented with respect to a sidewall of the second electrode layer ; ; and a spacer ) disposed on the tilted sidewall , wherein the memory material layer comprises a resistive memory material, the memory device structure being characterized in that the width of the first electrode layer equal to or less than the width of the second electrode layer
A method of acquiring in-vivo an image of interior parts of the human body or an image based quantification of blood flow conditions, using an imaging system and comprising the steps of positioning the body relatively to the imaging system , applying a respiratory resistance device to the respiratory system of the body , and performing an image acquisition step during an inhalation phase, during which the body provides suction against a resistance as provided by the respiratory resistance device , and/or performing an image acquisition step during an exhalation phase, during which the body provides exhalation against a resistance as provided by the respiratory resistance device , characterised respectively by either a contrast fluid or dye being administered into a preestablished venous access in an upper or a lower extremity of the body before and/or during the inhalation phase or by a contrast fluid or dye being administered into a preestablished venous access in a lower extremity of the body before and/or during the exhalation phase.
A reflex sight device configured to sight a weapon, the device comprising: a base configured to be mounted to the weapon; a frame carried by the base, and carrying a mirror and an illumination source spaced-apart and in a fixed relationship with respect to one another with the illumination source directed towards the mirror at a fixed orientation; a spindle carried by the frame and disposed between the frame and the base for facilitating adjustment of an orientation of the frame with respect to the base; the spindle having a vertical shaft extending between the base and the frame, with the frame capable of swiveling horizontally on the vertical shaft to facilitate azimuth adjustment; characterized in that the spindle has a horizontal axle extending between the vertical shaft and the frame with the frame vertically pivotal on the horizontal axle to facilitate elevation adjustment. a base configured to be mounted to the weapon; a frame carried by the base, and carrying a mirror and an illumination source spaced-apart and in a fixed relationship with respect to one another with the illumination source directed towards the mirror at a fixed orientation; a spindle carried by the frame and disposed between the frame and the base for facilitating adjustment of an orientation of the frame with respect to the base; the spindle having a vertical shaft extending between the base and the frame, with the frame capable of swiveling horizontally on the vertical shaft to facilitate azimuth adjustment; characterized in that the spindle has a horizontal axle extending between the vertical shaft and the frame with the frame vertically pivotal on the horizontal axle to facilitate elevation adjustment.
An inflatable packer assembly for use in a subterranean well, the inflatable packer assembly comprising: an inflatable seal element with an internal inflation chamber ; a flow passage extending longitudinally through the inflatable packer assembly ; a flow restrictor between first and second sections of the flow passage ; and a flow controller that selectively permits and prevents fluid communication between the inflation chamber and each of the first and second flow passage sections , and the flow controller is changeable from a deflate configuration to an inflate configuration in response to a flow rate increase through the flow passage in which the flow controller includes first and second valves , the first valve prevents fluid communication between the inflation chamber and the first flow passage section , and the second valve permits fluid communication between the inflation chamber and the second flow passage section , in the deflate configuration. an inflatable seal element with an internal inflation chamber ; a flow passage extending longitudinally through the inflatable packer assembly ; a flow restrictor between first and second sections of the flow passage ; and a flow controller that selectively permits and prevents fluid communication between the inflation chamber and each of the first and second flow passage sections , and the flow controller is changeable from a deflate configuration to an inflate configuration in response to a flow rate increase through the flow passage in which the flow controller includes first and second valves , the first valve prevents fluid communication between the inflation chamber and the first flow passage section , and the second valve permits fluid communication between the inflation chamber and the second flow passage section , in the deflate configuration.
A roller assembly comprising: a supporter configured to rotatably support a roller disposed in a movement path of a to-be-treated material; a fixed shaft attached to a rear surface of the supporter and having a stretchable portion; a body attached to the rear surface side of the supporter so as to surround the fixed shaft ; and a plunger attached so as to connect the body and the fixed shaft and formed so that a portion thereof advances and retreats with respect to the movement path , wherein the fixed shaft comprises a first shaft , a second shaft , and elastic members so as to receive and dissipate a reaction force caused by the to-be-treated material, wherein the first shaft is attached to the rear surface of the supporter , the second shaft has one side penetrating a rear surface of the first shaft to support advancing and retreating movement of the first shaft and the other side attached to a rear surface of the body , and the elastic members are supported on one-side outer circumferential surface of the second shaft and stretchable to receive the front-rear movement of the first shaft . a supporter configured to rotatably support a roller disposed in a movement path of a to-be-treated material; a fixed shaft attached to a rear surface of the supporter and having a stretchable portion; a body attached to the rear surface side of the supporter so as to surround the fixed shaft ; and a plunger attached so as to connect the body and the fixed shaft and formed so that a portion thereof advances and retreats with respect to the movement path , wherein the fixed shaft comprises a first shaft , a second shaft , and elastic members so as to receive and dissipate a reaction force caused by the to-be-treated material, wherein the first shaft is attached to the rear surface of the supporter , the second shaft has one side penetrating a rear surface of the first shaft to support advancing and retreating movement of the first shaft and the other side attached to a rear surface of the body , and the elastic members are supported on one-side outer circumferential surface of the second shaft and stretchable to receive the front-rear movement of the first shaft .
An electrical connection member , capable of detecting discontinuities (D) in an electrical network (R) and comprising: - an enclosure with at least three branches (16a-16c), each of the branches including at its end (18a-18c) at least one terminal (182a-182c) for electrical connection to a respective equipment (A, B, 2), - at least one main conductor (20, 20', 20") linking in the enclosure two terminals at the ends of two branches , - at least one secondary conductor linking in the enclosure at least one terminal of the end of the third branch and comprising an electrical coupler adapted to inject into the main conductor (20, 20', 20") an electrical test signal coming from the secondary conductor , and to transmit towards the secondary conductor an electrical response signal generated by reflection of the electrical test signal on a discontinuity (D) encountered in the electrical network (R), wherein each electrical coupler comprises a magnetic element (43, 43', 43") extending around a portion of a main conductor (20, 20', 20"), and each secondary conductor is a wire comprising a wire portion wound around a portion of the corresponding magnetic element (43, 43', 43") thus forming a coil (42, 42', 42"), and two wire portions each joining the coil (42, 42', 42") to a terminal of the end of the third branch , and wherein the two wire portions of each secondary conductor together form a twist. - an enclosure with at least three branches (16a-16c), each of the branches including at its end (18a-18c) at least one terminal (182a-182c) for electrical connection to a respective equipment (A, B, 2), - at least one main conductor (20, 20', 20") linking in the enclosure two terminals at the ends of two branches , - at least one secondary conductor linking in the enclosure at least one terminal of the end of the third branch and comprising an electrical coupler adapted to inject into the main conductor (20, 20', 20") an electrical test signal coming from the secondary conductor , and to transmit towards the secondary conductor an electrical response signal generated by reflection of the electrical test signal on a discontinuity (D) encountered in the electrical network (R),
A manufacturing and fixing method of a cover removable from an opening of a metal sheet section comprising the following steps: a. Defining a perimeter of the opening , b. Cutting a first cutting line comprising a first end and a second end and cutting a second cutting line comprising a first end and a second end in such a manner that they cut the perimeter of the opening , a stamping surface being thereby defined between the cutting lines , c. Repeating step b) at least three times along the perimeter of the opening , a total of at least four stamping surfaces being thereby defined, d. Stamping the at least four stamping surfaces in a direction perpendicular to the plane defined by the stamping surface in such a manner that there are at least two stamping surfaces stamped in opposite senses of said direction perpendicular to the plane defined by the stamping surface in an alternating manner among the stamping surfaces , e. Cutting the perimeter of the opening , at least four fixing lugs being thereby defined, f. Flattening the fixing lugs located in the section , thereby bringing them back to the starting plane of the stamping surface , g. Flattening the fixing lugs located in the cover , thereby bringing them back to the starting plane of the stamping surface in such a manner that at least four connecting surfaces are defined, or on the cover or on the section or on another fixing lug in such a manner that the cover remains fixed to the section without any additional fixing means a. Defining a perimeter of the opening , b. Cutting a first cutting line comprising a first end and a second end and cutting a second cutting line comprising a first end and a second end in such a manner that they cut the perimeter of the opening , a stamping surface being thereby defined between the cutting lines , c. Repeating step b) at least three times along the perimeter of the opening , a total of at least four stamping surfaces being thereby defined, d. Stamping the at least four stamping surfaces in a direction perpendicular to the plane defined by the stamping surface in such a manner that there are at least two stamping surfaces stamped in opposite senses of said direction perpendicular to the plane defined by the stamping surface in an alternating manner among the stamping surfaces , e. Cutting the perimeter of the opening , at least four fixing lugs being thereby defined, f. Flattening the fixing lugs located in the section , thereby bringing them back to the starting plane of the stamping surface , g. Flattening the fixing lugs located in the cover , thereby bringing them back to the starting plane of the stamping surface in such a manner that at least four connecting surfaces are defined, or on the cover or on the section or on another fixing lug in such a manner that the cover remains fixed to the section without any additional fixing means