mhurhangee/patent-ind-claim-en huggingface dataset:
A pressure vessel for use in seawater desalination or water purification by reverse osmosis, comprising a pipe body formed by winding into layers continuous fibers by filament winding (FW), wherein the pressure vessel is furnished, at each end in the axial direction of the pipe body, with an occluding cover for occluding the pipe body , the pipe body being constituted by a helical layer formed by helical winding of fibers, and first and second hoop layers formed by hoop winding of fibers, characterized by the peripheral surface of the pipe body being furnished, inward from the occluding covers in the pipe body axial direction, with inflow/outflow parts through which fluid flows in or out from the peripheral surface of the pipe body , a seal layer being furnished as the innermost layer, the helical layer being furnished, at each end in the axial direction of the pipe body , with a divergent part diverging outward from the seal layer in the circumferential direction and extending from at least a location outward from the occluding cover in the pipe body axial direction to a location inward from the inflow/outflow part in the pipe body axial direction, the first hoop layer being furnished between the seal layer and the divergent part of the helical layer , and the second hoop layer being furnished at the outer circumference of the helical layer , and extending from a location outward from the occluding cover in the pipe body axial direction to a location inward from the inflow/outflow part in the pipe body axial direction.
A laser machining apparatus comprising: a head having an optical outlet from which laser light is output; an optical cable attached to the head ; a nozzle attached to the head to direct a material supplied to a target ; a moving mechanism having a driving portion; and a controller , wherein the moving mechanism includes a first mechanism to allow the head to move in a curved manner in at least a two-dimensional plane and a second mechanism , which has a rotational axis (W), the controller has an attitude control mode in which the moving mechanism is controlled so that the head rotates around the rotational axis (W) while the head moves in the curved manner in at least the two-dimensional plane, characterized in that the second mechanism includes a cavity unit supported by the first mechanism and having a body with a cavity provided along at least the rotational axis (W), a tilting mechanism is arranged between the cavity unit and the head , the tilting mechanism is attached to the body of the cavity unit and configured to change an angle of the head with respect to the rotational axis (W), and the head , the nozzle and the tilting mechanism are configured to rotate together 360° or more around the rotational axis (W) in a state in which the optical cable and the material are inserted in the cavity of the cavity unit . a head having an optical outlet from which laser light is output; an optical cable attached to the head ; a nozzle attached to the head to direct a material supplied to a target ; a moving mechanism having a driving portion; and a controller , wherein the moving mechanism includes a first mechanism to allow the head to move in a curved manner in at least a two-dimensional plane and a second mechanism , which has a rotational axis (W), the controller has an attitude control mode in which the moving mechanism is controlled so that the head rotates around the rotational axis (W) while the head moves in the curved manner in at least the two-dimensional plane, characterized in that the second mechanism includes a cavity unit supported by the first mechanism and having a body with a cavity provided along at least the rotational axis (W), a tilting mechanism is arranged between the cavity unit and the head , the tilting mechanism is attached to the body of the cavity unit and configured to change an angle of the head with respect to the rotational axis (W), and the head , the nozzle and the tilting mechanism are configured to rotate together 360° or more around the rotational axis (W) in a state in which the optical cable and the material are inserted in the cavity of the cavity unit .
Battery charger located on board a vehicle, comprising: - a main voltage converter comprising: - at least one transformer (TF) comprising at least one primary and at least one secondary, - at least one upstream bridge (PR2) of driven transistors supplying the primary of the transformer (TF), - at least one downstream bridge (PR3) of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one isolation switch (TR) linked by way of an inductor (L5) to a midpoint (Tl) of a first branch (Legl) of the downstream bridge, making it possible when open to use the downstream bridge to deliver the first voltage, and - a control circuit for the transistors , characterized in that the battery charger furthermore comprises a capacitor (C5) disposed between an output of low potential of the downstream bridge (PR3) and said at least one isolation switch (TR) and in that , when the isolation switch (TR) is closed, at least said first branch of the downstream bridge is used to generate, by driving all or some of the transistors of the downstream bridge supplied by said battery, a second voltage different from the first voltage. - a main voltage converter comprising: - at least one transformer (TF) comprising at least one primary and at least one secondary, - at least one upstream bridge (PR2) of driven transistors supplying the primary of the transformer (TF), - at least one downstream bridge (PR3) of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one transformer (TF) comprising at least one primary and at least one secondary, - at least one upstream bridge (PR2) of driven transistors supplying the primary of the transformer (TF), - at least one downstream bridge (PR3) of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one isolation switch (TR) linked by way of an inductor (L5) to a midpoint (Tl) of a first branch (Legl) of the downstream bridge, making it possible when open to use the downstream bridge to deliver the first voltage, and - a control circuit for the transistors ,
A device for generating on the basis of a first protograph matrix P 1 of size m × n , wherein the first protograph matrix P 1 defines a first code H 1 , a second protograph matrix P 2 of size ( m + d ) × ( n + d ), wherein the second protograph matrix P 2 defines a second code H 2 , wherein the device comprises: a processor configured to: generate an auxiliary protograph matrix P' of size ( m + d 1 ) × ( n + d 1 ) on the basis of the first protograph matrix P 1 using row splitting; generate d 2 random integer numbers, wherein d 2 = d - d 1 ; generate a binary matrix M of size d 2 × ( n - m ), wherein rows of the binary matrix M are generated on the basis of the d 2 random integer numbers; generate a matrix M' by lifting the binary matrix M ; generate a matrix I of size d 2 × d 2 , wherein the matrix I has zero circulant shifts as diagonal elements and empty circulant shifts as non-diagonal elements; generate a matrix C 1 of size ( m + d 1 ) × d 2 and a matrix C 2 of size d 2 × ( m + d 1 ), wherein the matrix C 1 and the matrix C 2 comprise only empty circulant shifts; and generate the second protograph matrix P 2 on the basis of the auxiliary protograph matrix P' , the matrix M' , the matrix I , the matrix C 1 and the matrix C 2 , wherein the second protograph matrix P 2 comprises row weights equal to one of the d 2 random integer numbers. generate an auxiliary protograph matrix P' of size ( m + d 1 ) × ( n + d 1 ) on the basis of the first protograph matrix P 1 using row splitting; generate d 2 random integer numbers, wherein d 2 = d - d 1 ; generate a binary matrix M of size d 2 × ( n - m ), wherein rows of the binary matrix M are generated on the basis of the d 2 random integer numbers; generate a matrix M' by lifting the binary matrix M ; generate a matrix I of size d 2 × d 2 , wherein the matrix I has zero circulant shifts as diagonal elements and empty circulant shifts as non-diagonal elements; generate a matrix C 1 of size ( m + d 1 ) × d 2 and a matrix C 2 of size d 2 × ( m + d 1 ), wherein the matrix C 1 and the matrix C 2 comprise only empty circulant shifts; and generate the second protograph matrix P 2 on the basis of the auxiliary protograph matrix P' , the matrix M' , the matrix I , the matrix C 1 and the matrix C 2 , wherein the second protograph matrix P 2 comprises row weights equal to one of the d 2 random integer numbers.
A method of incorporating an active agent to an adhesive article for delivery of the active agent to a substrate, the adhesive article including an adhesive layer defining a substrate contacting surface adapted to adhere the adhesive article to the substrate, the method comprising: applying an active agent to the substrate contacting surface such that the active agent is disposed between the substrate and the adhesive layer when the adhesive article is adhered to the substrate, wherein the active agent comprises chlorhexidine gluconate; and wherein the active agent is applied to the substrate contacting surface of the adhesive using a liquid vehicle. applying an active agent to the substrate contacting surface such that the active agent is disposed between the substrate and the adhesive layer when the adhesive article is adhered to the substrate, wherein the active agent comprises chlorhexidine gluconate; and wherein the active agent is applied to the substrate contacting surface of the adhesive using a liquid vehicle.
A method performed by a computing system for creating an account for a user with an identity provider , the method comprising: receiving a request to create an identity provider account with the identity provider for use in logging onto a third-party system; generating a display page for providing an integrated-consent user experience for collecting both some new-account information and scope-of-consent information for consenting to share account information with the third-party system; receiving , from the user and via the display page, the new-account information that includes user credentials for the identity provider account and a scope of consent to share account information of the identity provider account with the third-party system; after receipt of the new-account information and the scope of consent, creating for the user the identity provider account; and recording an indication of the scope of consent, wherein the user subsequently signs in to the third-party system using the user credentials for the identity provider account, and wherein the third-party system accesses account information of the identity provider account based on the user having provided the scope of consent. receiving a request to create an identity provider account with the identity provider for use in logging onto a third-party system; generating a display page for providing an integrated-consent user experience for collecting both some new-account information and scope-of-consent information for consenting to share account information with the third-party system; receiving , from the user and via the display page, the new-account information that includes user credentials for the identity provider account and a scope of consent to share account information of the identity provider account with the third-party system; after receipt of the new-account information and the scope of consent, creating for the user the identity provider account; and recording an indication of the scope of consent, wherein the user subsequently signs in to the third-party system using the user credentials for the identity provider account, and wherein the third-party system accesses account information of the identity provider account based on the user having provided the scope of consent.
A thermal block assembly , comprising: a sample block with a top surface configured to receive a plurality of reaction vessels and an opposing bottom surface; and two or more thermoelectric devices operably coupled to the sample block, wherein each thermoelectric device includes a housing for a thermal sensor and a thermal control interface in communications with a controller , wherein each thermoelectric device is a configured to operate independently from each other to provide a substantially uniform temperature profile throughout the sample block, wherein each of the thermoelectric devices further comprise a top surface in thermal contact with the bottom surface of the sample block and an opposing bottom surface facing away from the sample block, wherein the housing is a groove carved out of an edge surface of each thermoelectric device, and wherein each of the thermoelectric devices houses a unique thermal sensor. a sample block with a top surface configured to receive a plurality of reaction vessels and an opposing bottom surface; and two or more thermoelectric devices operably coupled to the sample block, wherein each thermoelectric device includes a housing for a thermal sensor and a thermal control interface in communications with a controller , wherein each thermoelectric device is a configured to operate independently from each other to provide a substantially uniform temperature profile throughout the sample block, wherein each of the thermoelectric devices further comprise a top surface in thermal contact with the bottom surface of the sample block and an opposing bottom surface facing away from the sample block, wherein the housing is a groove carved out of an edge surface of each thermoelectric device, and wherein each of the thermoelectric devices houses a unique thermal sensor.
An inner diameter measuring device for measuring a shape of an inner surface of a cylindrical member , comprising an image pickup unit disposed on a base end side of a frame unit and for picking up an image of a forward end side, a light transmitting window disposed on a forward end side of said frame unit, a laser beam diffusing unit disposed on a forward end side of said light transmitting window, and a laser beam emitting unit for emitting a laser beam to said laser beam diffusing unit, characterized in that said light transmitting window is constituted of a first flange , a second flange and a total circumferential light transmitting window which is sandwiched between said first flange and said second flange, wherein said laser beam diffusing unit has a fixing flange as fixed by said second flange and two or more interchangeable cone mirror units which can be engaged and disengaged to said fixing flange, each of said cone mirror units are made up together of a cone mirror holder and a cone mirror as held by said cone mirror holder and each of said cone mirror has a conical reflection surface with a different vertical angle, wherein said cone mirror holder is fixed on said fixing flange by a faucet joint method and holds said cone mirror so that a center line of said cone mirror coincides with an optical axis of said laser beam emitting unit, wherein said laser beam emitting unit emits a laser beam to a forward end of said cone mirror and said laser beam as reflected by said cone mirror is projected by passing through said total circumferential light transmitting window and a vertical angle of said cone mirror is selected corresponding to a measuring condition.
An oil diffusion pump , wherein an oil vapor generator is arranged in a jet provided in a casing , the oil vapor generator is operated to vaporize an operating oil to produce oil vapor, and the oil vapor is sprayed from the jet to exhaust intake air: wherein the oil vapor generator comprises a container for storing oil therein, provided to be along the upright direction, which is a tubular member formed by a material to be heated with a lower end thereof being closed; characterized in that the oil vapor generator further comprises an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil ; and wherein the power supply means are configured to be operated to heat the tubular member so as to vaporize the oil inside the container . wherein the oil vapor generator comprises a container for storing oil therein, provided to be along the upright direction, which is a tubular member formed by a material to be heated with a lower end thereof being closed; characterized in that the oil vapor generator further comprises an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil ; and an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil ; and wherein the power supply means are configured to be operated to heat the tubular member so as to vaporize the oil inside the container .
A zirconia dental mill blank, comprising a milling target part composed of a composite material, the composite material comprising: a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, wherein, in the composite material, the preliminarily sintered body is a microporous preliminarily sintered body having a relative density of 45 to 65% and having pores opened outward, and the fine particles of the inorganic oxide are held in the pores of the microporous preliminarily sintered body. the composite material comprising: a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, wherein, in the composite material, the preliminarily sintered body is a microporous preliminarily sintered body having a relative density of 45 to 65% and having pores opened outward, and the fine particles of the inorganic oxide are held in the pores of the microporous preliminarily sintered body.
A liquid pharmaceutical formulation for injection comprising: (i) an antibody; (ii) 1-butyl-3-methylimidazolium methanesulfonate (BMI Mes); and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection: (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 100 mPa.s (100 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the BMI Mes; wherein the absolute viscosity is an extrapolated zero-shear viscosity. (i) an antibody; (ii) 1-butyl-3-methylimidazolium methanesulfonate (BMI Mes); and (iii) a pharmaceutically acceptable solvent; (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 100 mPa.s (100 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the BMI Mes;
A method for generating a virtual model of a subperiosteal dental implant device for a jaw of a patient having a gum tissue with a gum line, the method comprising: obtaining a virtual mouth model of a patient using a non-invasive modelling method , the virtual mouth model of the patient providing a three-dimensional representation of at least a section of a jaw bone of the patient; positioning at least one replacement tooth in relation to the section of the jaw bone defined by the virtual mouth model of the patient; positioning at least one implant head at a respective implant position wherein each one of the at least one implant head is aligned with a respective one of the at least one replacement tooth; and designing and generating a virtual model of the subperiosteal dental implant device having a frame with a shape at least partially derived from a shape of the section of the jaw bone defined by the virtual mouth model of the patient and at least a portion of each one of the at least one implant head extending from the frame at the respective implant position. obtaining a virtual mouth model of a patient using a non-invasive modelling method , the virtual mouth model of the patient providing a three-dimensional representation of at least a section of a jaw bone of the patient; positioning at least one replacement tooth in relation to the section of the jaw bone defined by the virtual mouth model of the patient; positioning at least one implant head at a respective implant position wherein each one of the at least one implant head is aligned with a respective one of the at least one replacement tooth; and designing and generating a virtual model of the subperiosteal dental implant device having a frame with a shape at least partially derived from a shape of the section of the jaw bone defined by the virtual mouth model of the patient and at least a portion of each one of the at least one implant head extending from the frame at the respective implant position.