mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power transmission carrier, comprising an enclosure and an electric power transmission cable mounted on the enclosure, wherein the enclosure comprises a tower of a wind turbine generator system or an exterior wall of a television tower, and the enclosure functions as a heat sink for the electric power transmission cable ; characterized in that a thermal conductive bridge is provided between the electric power transmission cable and the enclosure, the electric power transmission cable is in surface contact with the thermal conductive bridge and the thermal conductive bridge is in surface contact with an inner wall of the enclosure, to allow the electric power transmission cable to be in indirect surface contact with the enclosure; and in that the thermal conductive bridge has a connecting surface connected to the inner wall of the enclosure, and a thermal conductive arc surface configured to mount the electric power transmission cable ; or, the thermal conductive bridge is an arc-shaped thermal conductive recess extending from the inner wall of the enclosure; or, an inner wall of the enclosure has a radian, the electric power transmission cable has an arc surface, and the arc surface has a radian matching with the radian of the inner wall of the enclosure, to allow the electric power transmission cable to be in direct surface contact with the enclosure. the enclosure comprises a tower of a wind turbine generator system or an exterior wall of a television tower, and the enclosure functions as a heat sink for the electric power transmission cable ; characterized in that a thermal conductive bridge is provided between the electric power transmission cable and the enclosure, the electric power transmission cable is in surface contact with the thermal conductive bridge and the thermal conductive bridge is in surface contact with an inner wall of the enclosure, to allow the electric power transmission cable to be in indirect surface contact with the enclosure; and in that the thermal conductive bridge has a connecting surface connected to the inner wall of the enclosure, and a thermal conductive arc surface configured to mount the electric power transmission cable ; or, the thermal conductive bridge is an arc-shaped thermal conductive recess extending from the inner wall of the enclosure; or, an inner wall of the enclosure has a radian, the electric power transmission cable has an arc surface, and the arc surface has a radian matching with the radian of the inner wall of the enclosure, to allow the electric power transmission cable to be in direct surface contact with the enclosure.
A method of (i) diagnosing a renal dysfunction or disease and/or renal complications of a disease in a subject, or (ii) diagnosing or monitoring kidney function in a subject, or (iii) diagnosing kidney disease or renal complications prior to the onset of kidney degeneration in a subject, or (iv) predicting or monitoring the risk of an adverse event in a subject with kidney disease wherein said adverse event is selected from the group comprising worsening of kidney dysfunction including kidney failure, loss of kidney function, development of related comorbid condition, end-stage kidney disease, or death, or (v) predicting or monitoring the success of a therapy or intervention in a subject with kidney disease, the method comprising: (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value. (i) diagnosing a renal dysfunction or disease and/or renal complications of a disease in a subject, or (ii) diagnosing or monitoring kidney function in a subject, or (iii) diagnosing kidney disease or renal complications prior to the onset of kidney degeneration in a subject, or (iv) predicting or monitoring the risk of an adverse event in a subject with kidney disease wherein said adverse event is selected from the group comprising worsening of kidney dysfunction including kidney failure, loss of kidney function, development of related comorbid condition, end-stage kidney disease, or death, or (v) predicting or monitoring the success of a therapy or intervention in a subject with kidney disease, the method comprising: (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value. (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value.
An electrode assembly configured by alternately stacking two or more positive electrodes and one or more negative electrodes using a separator as a boundary therebetween, wherein: outermost positive electrodes are positioned on outermost opposite surfaces of the electrode assembly , respectively; each of the outermost positive electrodes includes a positive electrode current collector , a positive active material layer formed on one surface of the positive electrode current collector , and a non-reversible material coating layer formed on the other surface of the positive electrode current collector and including Li 2 O 2 , Li 2 O, Li 2 NiO 2 , or mixture thereof; the non-reversible material coating layer is positioned on an outermost surface of the electrode assembly ; and the negative electrode includes a silicon (Si)-based material as a negative active material. outermost positive electrodes are positioned on outermost opposite surfaces of the electrode assembly , respectively; each of the outermost positive electrodes includes a positive electrode current collector , a positive active material layer formed on one surface of the positive electrode current collector , and a non-reversible material coating layer formed on the other surface of the positive electrode current collector and including Li 2 O 2 , Li 2 O, Li 2 NiO 2 , or mixture thereof; the non-reversible material coating layer is positioned on an outermost surface of the electrode assembly ; and the negative electrode includes a silicon (Si)-based material as a negative active material.
Stretching device for stretching a plastic film in its transport direction, with a first roller that can be driven by a first drive and can be rotated at a first rotational speed, and with a second roller that can be driven by a second drive and can be rotated at a second rotational speed, wherein the second rotational speed is greater than the first rotational speed, wherein the second roller is arranged downstream of the first roller in the transport path of the plastic film , wherein at least one of the rollers is a roller through which air can flow from the outside to the inside, characterized in that the at least one roller through which air can flow can be continuously cleaned in that a segment of the roller through which air can flow, in the effective region of which the film does not rest, can be subjected to an excess pressure via an air flow which can be guided outwards from the interior of the roller . wherein at least one of the rollers is a roller through which air can flow from the outside to the inside, characterized in that the at least one roller through which air can flow can be continuously cleaned in that a segment of the roller through which air can flow, in the effective region of which the film does not rest, can be subjected to an excess pressure via an air flow which can be guided outwards from the interior of the roller .
A composition comprising a substituted benzotriazole phenol with the structure of Formula I: Formula I wherein R 1 is an -O-R 9 , a -N-R 9 R 10 , a -B(OR 18 )(OR 19 ) group, or a -SiR 20 3 group wherein R 9 is selected from an alkyl group, or an aryl group, and R 10 is a hydrogen atom, an alkyl group, or an aryl group, or R 9 and R 10 together with the atoms connecting form a heterocyclic ring structure, each R 18 and R 19 is independently a hydrogen atom, an alkyl group, an aryl group, or R 18 and R 19 together with the atoms connecting form a heterocyclic ring structure, each R 20 group is an alkyl group; and each R 2 , R 4 , R 5 , R 6 , R 7 , and R 8 , independently is a hydrogen atom, an alkyl group, an alkenyl group, an aryl group, or a halogen atom; and R 3 is an alkyl group with 8 carbon atoms. each R 20 group is an alkyl group; and each R 2 , R 4 , R 5 , R 6 , R 7 , and R 8 , independently is a hydrogen atom, an alkyl group, an alkenyl group, an aryl group, or a halogen atom; and R 3 is an alkyl group with 8 carbon atoms.
A monitoring device comprising: an acquiring part configured to acquire observed values (w) of a variable that is sampled with respect to a behavior of a control system while the control system is running; the monitoring device being characterized by a determining part configured to determine a variation range of the acquired observed values related to the behavior of the control system using a mathematical model (M) constructed based on the behavior of the control system, and determine whether the variation range of the acquired observed values satisfies a specification (φ) related to the acquired observed values. an acquiring part configured to acquire observed values (w) of a variable that is sampled with respect to a behavior of a control system while the control system is running; the monitoring device being characterized by a determining part configured to determine a variation range of the acquired observed values related to the behavior of the control system using a mathematical model (M) constructed based on the behavior of the control system, and determine whether the variation range of the acquired observed values satisfies a specification (φ) related to the acquired observed values.
A garment made of an elastic circular-knitted fabric comprising knitted loops (c1) composed of non-elastic fibers, and knitted loops (c2) composed of non-elastic fibers and elastic fibers, wherein courses comprising the knitted loops (c1) composed of non-elastic fibers and courses comprising knitted loops (c2) composed of non-elastic fibers and elastic fibers are present in an alternating manner, wherein said knitted loops (c2) composed of non-elastic fibers and elastic fibers are selected from the group consisting of covered yarns in which the elastic fibers are covered with the non-elastic fibers or fibers in which the non-elastic fibers have been plated with the elastic fibers, and wherein the non-elastic fibers are selected from the group consisting of spun yarns of natural fibers selected from cotton, wool, and hemp, and filament yarns of synthetic fibers selected from polyamide fibers, polyester fibers, acrylic fibers, polypropylene fibers, vinyl chloride fibers, and cellulose fibers, characterized in that elongation stress curves of the elastic circular-knitted fabric in the warp and weft directions have a ratio ((a2)/(a1)) of a slope (a2) at 40 to 80% elongation to a slope (a1) at 0 to 40% elongation, determined as described in paragraph of the description, of not greater than 1.0 in the respective directions, and the standard deviation of unevenness between loops on a rear surface of the elastic circular-knitted fabric, determined as described in paragraph of the description, is not greater than 0.5, wherein the rear surface corresponds to a skin surface side when the the garment is in a worn-state.
A hot stamping method comprising: (a) heating a blank to an austenitization temperature of the blank or more; (b) forming the heated blank in a press forming apparatus, wherein the forming of the blank is started at a temperature of 600°C to 900°C and the blank is cooled to below a martensite transformation start temperature (Ms) of the blank at a speed of 25°C/sec or more; characterized in that the method further comprises (c) taking out the formed blank from the press forming apparatus at a temperature of 220°C to 350°C and consecutively cutting the formed blank with a trimming die, wherein a blank temperature at the time of cutting is 170°C to 330°C. (a) heating a blank to an austenitization temperature of the blank or more; (b) forming the heated blank in a press forming apparatus, wherein the forming of the blank is started at a temperature of 600°C to 900°C and the blank is cooled to below a martensite transformation start temperature (Ms) of the blank at a speed of 25°C/sec or more; characterized in that the method further comprises (c) taking out the formed blank from the press forming apparatus at a temperature of 220°C to 350°C and consecutively cutting the formed blank with a trimming die, wherein a blank temperature at the time of cutting is 170°C to 330°C.
A brush tufting device, comprising at least one tufting tool which has a plurality of partial tools adapted to reciprocate on paths, a drive having a rotation motor and a gear which converts the rotary movement of the rotation motor into the reciprocating movement of at least one partial tool and has a camshaft , the camshaft having at least one drive pair comprising two adjacent cams (82 to 100), the two cams (82 to 100) extending along a radial plane (R) to the axis of rotation (A) of the camshaft and having a cam surface forming the peripheral surface of the cam (82 to 100), each cam surface extending radially outwards, one respective cam follower running along each of the two cam surfaces , characterized in that each cam surface further extends at least in sections in an obliquely inclined manner relative to the radial plane, and the two cam followers of each drive pair are seated on a common rocker , the rocker axle of which is arranged between the radial planes (R) of the two cams (82 to 100), each cam follower generating a swiveling movement of the rocker axle in a swiveling direction assigned thereto, and the rocker axle forming an output shaft (60 to 68) and being coupled to an intermediate gear which converts the output movement into the reciprocating movement.
A compressing member comprising: an element comprising a polymeric material which retains at least 90% of its dimensions after being exposed to a mixture of at least one lubricant and at least one refrigerant for 30 days at 60° C, characterized in that the polymeric material is configured to have at least one reinforcing shape selected from the group consisting of a rib, a boss, a flange, a hoop and combinations thereof and, in that the polymeric material further comprises a crosslinked organic base coat.
A method for direct writing of single crystal alloys, the method being characterised by : heating a single-crystal substrate using an induction heat source to a predetermined temperature below its melting point; using a laser to form a melt pool on a surface of the substrate , wherein the single-crystal substrate is positioned on a base plate , and wherein the laser and the base plate are movable relative to each other, the laser being used for direct metal deposition; introducing a superalloy powder to the melt pool ; and controlling the temperature of the melt pool using the induction heat source and the laser to maintain a predetermined thermal gradient on a solid and liquid interface of the melt pool so as to form a single crystal deposit on the single-crystal substrate ; wherein the induction heat source is used for controlling the solid-liquid interface temperature gradient as the crystal grows. heating a single-crystal substrate using an induction heat source to a predetermined temperature below its melting point; using a laser to form a melt pool on a surface of the substrate , wherein the single-crystal substrate is positioned on a base plate , and wherein the laser and the base plate are movable relative to each other, the laser being used for direct metal deposition; introducing a superalloy powder to the melt pool ; and controlling the temperature of the melt pool using the induction heat source and the laser to maintain a predetermined thermal gradient on a solid and liquid interface of the melt pool so as to form a single crystal deposit on the single-crystal substrate ; wherein the induction heat source is used for controlling the solid-liquid interface temperature gradient as the crystal grows.
A printing device configured to print an image over a plurality of pages on a first surface of a printing medium having a long belt shape, the printing device comprising: a conveyance unit configured to convey the printing medium; a printing unit configured to print an image by ejecting ink on the first surface of the printing medium conveyed by the conveyance unit ; and a control unit , wherein the control unit includes: a printing control unit configured to control operation of the printing unit ; and a conveyance control unit configured to control operation of the conveyance unit , the printing control unit includes a printing interruption control unit , characterized in that the control unit is configured to control, when a printing interruption cause occurs, the printing unit to interrupt printing operation after completing printing of a printing-interruption-time last page being printed on the first surface of the printing medium, and further printing a position mark indicating a printing resumption position on a printing resumption page that is a next page of the printing-interruption-time last page, and the conveyance control unit includes a conveyance speed control unit configured to control, after interruption of printing operation, the conveyance unit to start deceleration of a conveyance speed of the printing medium and stop a conveyance of the printing medium. a conveyance unit configured to convey the printing medium; a printing unit configured to print an image by ejecting ink on the first surface of the printing medium conveyed by the conveyance unit ; and a control unit , wherein the control unit includes: a printing control unit configured to control operation of the printing unit ; and a conveyance control unit configured to control operation of the conveyance unit , a printing control unit configured to control operation of the printing unit ; and a conveyance control unit configured to control operation of the conveyance unit , the printing control unit includes a printing interruption control unit , characterized in that the control unit is configured to control, when a printing interruption cause occurs, the printing unit to interrupt printing operation after completing printing of a printing-interruption-time last page being printed on the first surface of the printing medium, and further printing a position mark indicating a printing resumption position on a printing resumption page that is a next page of the printing-interruption-time last page, and the conveyance control unit includes a conveyance speed control unit configured to control, after interruption of printing operation, the conveyance unit to start deceleration of a conveyance speed of the printing medium and stop a conveyance of the printing medium.
A system for producing concrete products in a casting process by means of casting molds composed of appropriate outer and inner molds, comprising an automated circulation system, particularly a program-controlled circulation system, which has: - a curing area for storing concrete products curing in a respective casting mold; - an automated manufacturing area with a plurality of automated manufacturing devices; and - a conveying device with automated circulatory conveying sections for respectively conveying the casting molds or the outer and inner molds of the casting molds from the curing area into the automated manufacturing area , between the respective manufacturing devices of the automated manufacturing area and from the automated manufacturing area into the curing area ; wherein the automated manufacturing area of the circulation system has: - an automated mold set-up device for assembling a casting mold from cleaned outer and inner molds, and - an automated filling device (F1, F2, F3; F1-F5) for filling one or more assembled casting molds with concrete; characterized in that the system furthermore comprises a manually operable mold set-up device with at least one mold set-up station (M1, M2, M3, M4) for the manually supported assembly of a casting mold from appropriate outer and inner molds; wherein the conveying device comprises a feed conveying section that is designed for supplying a casting mold assembled in the manually operable mold set-up device to the automated circulation system. - a curing area for storing concrete products curing in a respective casting mold; - an automated manufacturing area with a plurality of automated manufacturing devices; and - a conveying device with automated circulatory conveying sections for respectively conveying the casting molds or the outer and inner molds of the casting molds from the curing area into the automated manufacturing area , between the respective manufacturing devices of the automated manufacturing area and from the automated manufacturing area into the curing area ; - an automated mold set-up device for assembling a casting mold from cleaned outer and inner molds, and - an automated filling device (F1, F2, F3; F1-F5) for filling one or more assembled casting molds with concrete; the system furthermore comprises a manually operable mold set-up device with at least one mold set-up station (M1, M2, M3, M4) for the manually supported assembly of a casting mold from appropriate outer and inner molds; wherein the conveying device comprises a feed conveying section that is designed for supplying a casting mold assembled in the manually operable mold set-up device to the automated circulation system.