mhurhangee/patent-ind-claim-en huggingface dataset:
A lubricant dispenser comprising at least - a lubricant reservoir , - an electromechanical drive that acts on at least one actuating element to dispense lubricant from the lubricant reservoir , - a battery which provides a battery voltage (V B ), - a control board assembly having at least a main board with an electronic circuit arrangement that comprises at least one central microcontroller and additional electronic functional components, as well as conductor tracks , characterized in that the electronic circuit arrangement is divided into multiple circuit islands (E1 to E9), or comprises multiple circuit islands (E1 to E9), wherein some or all circuit islands are power-limited, and one or more of the circuit islands are power-limited by at least one power-limiting resistor (R1, R1', R2, R3) . - a lubricant reservoir , - an electromechanical drive that acts on at least one actuating element to dispense lubricant from the lubricant reservoir , - a battery which provides a battery voltage (V B ), - a control board assembly having at least a main board with an electronic circuit arrangement that comprises at least one central microcontroller and additional electronic functional components, as well as conductor tracks , the electronic circuit arrangement is divided into multiple circuit islands (E1 to E9), or comprises multiple circuit islands (E1 to E9), wherein some or all circuit islands are power-limited, and one or more of the circuit islands are power-limited by at least one power-limiting resistor (R1, R1', R2, R3) .
An upper-torso garment having two breast-covering portions , the upper-torso garment comprising: a tubular-jacquard knit region positioned in the breast-covering portions , the tubular-jacquard knit region comprising a plurality of front-stitch courses consecutively interlooped with one another and a plurality of back-stitch courses consecutively interlooped with one another; the plurality of front-stitch courses and the plurality of back-stitch courses being constructed of a first yarn strand and a second yarn strand , wherein each front-stitch course of the plurality of front-stitch courses intermittently interlocks with a back-stitch course of the plurality of back-stitch courses to form a plurality of interlocked courses (720A-C); each interlocked course of the plurality of interlocked courses (720A-C) comprising a plurality of interlocking cross overs , each of which comprises the first yarn strand and the second yarn strand crossing over one another to change positions between a respective front-stitch course and a respective back-stitch course; in each interlocked course , the plurality of interlocking cross overs dividing the respective front-stitch course and the respective back-stitch course into a plurality of front-stitch subsets and a plurality of back-stitch subsets, wherein each interlocked course includes a plurality of knit tubular structures, each of which is comprised of a pair of adjacent interlocking cross overs , a front-stitch subset , and a back-stitch subset , wherein the plurality of knit tubular structures are arranged side by side across the tubular-jacquard knit region ; the tubular-jacquard knit region being divided into a first knit zone that constructs at least part of a breast-covering portion , a second knit zone that constructs at least part of the other breast-covering portion , and a middle knit zone positioned between the first and second knit zones , wherein each interlocked course includes a first subset of knit tubular structures corresponding with the first knit zone , a second subset of knit tubular structures corresponding with the second knit zone , and a third subset of knit tubular structures corresponding with the middle knit zone ; the first subset of knit tubular structures and the second subset of knit tubular structures including two or more knit tubular structures each having at least two and fewer than seven front stitches and at least two and fewer than seven back stitches ; and the third subset of knit tubular structures consists of only one knit tubular structure that comprises at least seven front stitches and at least seven back stitches and that separates the first subset of knit tubular structures from the second subset of knit tubular structures.
A coating on a smooth surface of a substrate comprising a chemical layer on the surface and a lubricant layer over the chemical layer, wherein the surface to be coated has an average roughness R a of less than 1 μm and wherein the surface is hydrophilic by hydroxyl groups available on the surface, wherein the chemical layer is a silane or siloxane polymer formed by applying a coating composition onto the surface, the coating composition including (i) a polymerizable silane or siloxane or both, (ii) a solvent and (iii) an acid catalyst and wherein the lubricant is a perfluorinated oil or a silicone oil or a mineral oil or a plant oil or any combination thereof.
Composite profile produced from a metal profile (1, 1.1 1.2) and a second metal profile (2, 2.1, 2.2) connected by cold-joining on a longitudinal side to the first metal profile (1, 1.1, 1.2), both of these profiles carrying complementing clamping structures on their longitudinal sides facing one another for the cold-joining of the two profiles (1, 2; 1.1, 2.1, 2.2), wherein the first profile (1, 1.1, 1.2) comprises as a clamping structure a clamping head (5, 5.1, 5.2, 5.3), formed at a web and forming in each case an undercut, by way of a larger extension in the profile transverse direction in relation to that of the web , on both sides of the web , and the clamping structure complementary to this of the second profile (2, 2.1, 2.2) is configured to receive a clamping head receiver (12, 12.1) to receive a section of the clamping head (5, 5.1, 5.2, 5.3) of the first profile (1, 1.1, 1.2) and a clasping limb (16, 16.1, 16.2) formed at a limb of the clamping head receiver (12, 12.1), with a first profile arm (18, 18.1) projecting before the cold joining, and with a second profile arm (20, 20.1) formed at an angle to this, of which the free end is provided for engaging behind the clamping head (5, 5.1, 5.2, 5.3) and before the cold joining points towards a clamping pocket of the first profile (1, 1.1, 1.2) delimited by the web , characterised in that the clasping limb (16, 16.1, 16.2) is formed at the profile outer limb of the clamping head receiver (12, 12.1) and that the clamping head receiver (12, 12.1) tapers in respect of the arrangement of its clear width and/or the clamping head (5, 5.1, 5.2, 5.3) tapers in respect of the material thickness of the section to be inserted into the clamping head receiver (12, 12.1) in the direction towards the base of the clamping head receiver (12, 12.1), wherein, by means of the second profile arm (20, 20.1,) following the cold joining, the section of the clamping head (5, 5.1, 5.2, 5.3) pressed into the clamping head receiver (12, 12.1) is metallically connected at least in sections to the clamping head receiver (12, 12.1) with sealing effect in the profile transverse direction.
A device for collecting and stabilizing a biological sample, the device comprising: (a) a housing comprising an open end portion an closed end portion , and an interior space ; (b) a retainer insertable into the interior space of the housing, the retainer comprising a vessel for receiving a solution and a penetrable seal for enclosing the solution within the vessel; (c) a collector removably engagable with the open end portion of the housing and capable of sealingly closing the open end portion of the housing, the collector comprising an absorbent member for collecting the biological sample, wherein, when the collector is engaged with the open end portion of the housing, the absorbent member is received in the housing and the collector breaks the penetrable seal of the retainer that has been inserted into the interior space of the housing and propels the solution to flow through the absorbent member, thereby releasing the biological sample from the absorbent member and facilitating mixing of the biological sample with the solution, and characterized in that the vessel has an open top , and a closed bottom with an inwardly recessed central portion toward the open top or a protrusion protruding from a central portion of the closed bottom toward the open top, wherein the inwardly recessed central portion or the protrusion of the closed bottom of the vessel compresses the absorbent member when the collector is engaging or engaged with the open end portion of the housing, thereby squeezing the biological sample out of the absorbent member. (a) a housing comprising an open end portion an closed end portion , and an interior space ; (b) a retainer insertable into the interior space of the housing, the retainer comprising a vessel for receiving a solution and a penetrable seal for enclosing the solution within the vessel; (c) a collector removably engagable with the open end portion of the housing and capable of sealingly closing the open end portion of the housing, the collector comprising an absorbent member for collecting the biological sample,
A plant operation assistance system , comprising: a data obtaining unit configured to obtain monitoring data indicating state quantity of a plant, the state quantity being detected by a sensor ; an identifying unit configured to statistically derive, based on accumulated data which are plural monitoring data obtained in a predetermined past time period, a probability distribution of the state quantity which includes an average value and variance of the state quantity; a model generation unit configured to generate, based on plant parameters composed from a database including design information of the plant and the monitoring data indicating the state quantity detected by the sensor , a stochastic model of the plant; a data processing unit configured to assign the probability distribution to the monitoring data obtained by the data obtaining unit , wherein the probability distribution comprises an average value and a variance of the state quantity corresponding to the assigned monitoring data; and a prediction unit configured to input the monitoring data assigned with the probability distribution into the stochastic model and predict a state of the plant. a data obtaining unit configured to obtain monitoring data indicating state quantity of a plant, the state quantity being detected by a sensor ; an identifying unit configured to statistically derive, based on accumulated data which are plural monitoring data obtained in a predetermined past time period, a probability distribution of the state quantity which includes an average value and variance of the state quantity; a model generation unit configured to generate, based on plant parameters composed from a database including design information of the plant and the monitoring data indicating the state quantity detected by the sensor , a stochastic model of the plant; a data processing unit configured to assign the probability distribution to the monitoring data obtained by the data obtaining unit , wherein the probability distribution comprises an average value and a variance of the state quantity corresponding to the assigned monitoring data; and a prediction unit configured to input the monitoring data assigned with the probability distribution into the stochastic model and predict a state of the plant.
Device for moving hinged door leaves opening completely, the device comprising a wardrobe (M) and at least one door leaf (A) hinged to the fixed structure of the wardrobe (M) and suited to rotate from a configuration in which the compartment defined inside the wardrobe is closed to a configuration in which it is open, and at least a top (C) that is a part of the fixed structure of the wardrobe (M), characterized in that it comprises: • at least one first rod (D1) hinged between the external side of the top (C) of the wardrobe and the upper edge of said first door leaf (A), in such a way that it rotates on a plane which is parallel and close to the top (C) itself and above it, comprising at least two half rods (D11, D12) that slide with respect to each other in such a way as to increase/decrease the distance between the hinge point on the top of the wardrobe and the hinge point on the door leaf (A), and wherein said first rod (D1) is equipped with shock absorbing devices or braking and damping devices operated through magnetic attraction and integral with the rod (D1) itself, which counteract the opening movement and brake the closing movement of the first door leaf (A). • at least one first rod (D1) hinged between the external side of the top (C) of the wardrobe and the upper edge of said first door leaf (A), in such a way that it rotates on a plane which is parallel and close to the top (C) itself and above it, comprising at least two half rods (D11, D12) that slide with respect to each other in such a way as to increase/decrease the distance between the hinge point on the top of the wardrobe and the hinge point on the door leaf (A), and wherein said first rod (D1) is equipped with shock absorbing devices or braking and damping devices operated through magnetic attraction and integral with the rod (D1) itself, which counteract the opening movement and brake the closing movement of the first door leaf (A).
An antistatic agent (Z) comprising: a block polymer (A) having a block of a hydrophobic polymer (a) and a block of a hydrophilic polymer (b) as structure units; and a sulfonate (S), the sulfonate (S) being a salt of an alkylbenzenesulfonic acid anion which has a C6-C18 alkyl group, the sulfonate (S) including at least two alkylbenzenesulfonates different in the number of carbon atoms of the alkyl group in the anion, the sulfonate (S) satisfying the following formula: 0.40 ≤ W n / W n − 1 + W n + W n + 1 ≤ 0.90 wherein n is the number of carbon atoms of the alkyl group in the anion of an alkylbenzenesulfonate accounting for the highest proportion by weight in the sulfonate (S); W(n) is a weight of said alkylbenzenesulfonate; and W(n - 1) and W(n + 1) are respectively a weight of an alkylbenzenesulfonate containing an anion having an alkyl group with (n - 1) carbon atoms and a weight of an alkylbenzenesulfonate containing an anion having an alkyl group with (n + 1) carbon atoms. a block polymer (A) having a block of a hydrophobic polymer (a) and a block of a hydrophilic polymer (b) as structure units; and a sulfonate (S), the sulfonate (S) being a salt of an alkylbenzenesulfonic acid anion which has a C6-C18 alkyl group, the sulfonate (S) including at least two alkylbenzenesulfonates different in the number of carbon atoms of the alkyl group in the anion, the sulfonate (S) satisfying the following formula: 0.40 ≤ W n / W n − 1 + W n + W n + 1 ≤ 0.90 wherein n is the number of carbon atoms of the alkyl group in the anion of an alkylbenzenesulfonate accounting for the highest proportion by weight in the sulfonate (S); W(n) is a weight of said alkylbenzenesulfonate; and W(n - 1) and W(n + 1) are respectively a weight of an alkylbenzenesulfonate containing an anion having an alkyl group with (n - 1) carbon atoms and a weight of an alkylbenzenesulfonate containing an anion having an alkyl group with (n + 1) carbon atoms.
A system to manage unmanned air vehicles (UAVs) comprising: an enclosed storage area including at least one cell formed therein to receive and store at least one UAV; a platform to receive a UAV from a flight and to support a UAV for launching, the platform including an electronic sliding door to act as a part of the platform , characterized in that the door being configured to drop down by a predetermined amount with respect to the platform and slide thereunder along a pair of tracks to create an opening in the platform to allow UAVs to enter and exit the storage area ; and further comprises a pair of gantry arms movable to pick up and position a UAV anyplace along the platform and to a position over the opening . an enclosed storage area including at least one cell formed therein to receive and store at least one UAV; a platform to receive a UAV from a flight and to support a UAV for launching, the platform including an electronic sliding door to act as a part of the platform , characterized in that the door being configured to drop down by a predetermined amount with respect to the platform and slide thereunder along a pair of tracks to create an opening in the platform to allow UAVs to enter and exit the storage area ; and further comprises a pair of gantry arms movable to pick up and position a UAV anyplace along the platform and to a position over the opening .
A diaphragm for a miniature sound-generating device, wherein the diaphragm is made of a polyacrylate copolymer, characterized in that the polyacrylate copolymer is made by crosslinking polymerization of alkyl acrylate serving as a main polymerization monomer and a crosslinking monomer, the polyacrylate copolymer is mixed with a reinforcing agent, the polyacrylate copolymer itself is 100 parts by mass, the reinforcing agent itself is 1-90 parts by mass, and the diaphragm has a loss factor greater than 0.06 and a shore hardness in a range of 15-90 A.
A quality-of-life monitoring system for monitoring human subjects, the system comprising: one or more contactless sensor units configured to measure physiological data pertaining to a sleep quality of life assessment of the monitored subject; an input device configured to capture subjective responses from the monitored subject pertaining to the sleep quality-of-life; and a data analysis unit operable to: set a target sleep quality of life index for the monitored subject; receive, from the input device, the captured subjective responses; receive, from the one or more contactless sensors, the measured physiological data; analyze the measured physiological data and the captured subjective responses to generate a quantitative sleep quality of life index; generate suggested interventions to affect the sleep quality of life index of the monitored subject; wherein the suggested interventions comprise increasing the monitored subject's allowed sleep time, if the generated sleep quality of life index is greater than the target sleep quality of life index, and reducing the monitored subject's allowed sleep time, if the generated sleep quality of life index is not greater than the target sleep quality of life index. one or more contactless sensor units configured to measure physiological data pertaining to a sleep quality of life assessment of the monitored subject; an input device configured to capture subjective responses from the monitored subject pertaining to the sleep quality-of-life; and a data analysis unit operable to: set a target sleep quality of life index for the monitored subject; receive, from the input device, the captured subjective responses; receive, from the one or more contactless sensors, the measured physiological data; analyze the measured physiological data and the captured subjective responses to generate a quantitative sleep quality of life index; generate suggested interventions to affect the sleep quality of life index of the monitored subject; wherein the suggested interventions comprise increasing the monitored subject's allowed sleep time, if the generated sleep quality of life index is greater than the target sleep quality of life index, and reducing the monitored subject's allowed sleep time, if the generated sleep quality of life index is not greater than the target sleep quality of life index. set a target sleep quality of life index for the monitored subject; receive, from the input device, the captured subjective responses; receive, from the one or more contactless sensors, the measured physiological data; analyze the measured physiological data and the captured subjective responses to generate a quantitative sleep quality of life index; generate suggested interventions to affect the sleep quality of life index of the monitored subject; wherein the suggested interventions comprise increasing the monitored subject's allowed sleep time, if the generated sleep quality of life index is greater than the target sleep quality of life index, and reducing the monitored subject's allowed sleep time, if the generated sleep quality of life index is not greater than the target sleep quality of life index.
A method for preparing a nano lithium disilicate glass-ceramics as an artificial tooth block for CAD/CAM machining, the lithium disilicate glass-ceramics containing a nanosized lithium disilicate crystalline phase of 0.2 to 0.5 μm and a SiO 2 crystalline phase of 0.5 to 1.0 μm, the method comprising: melting a glass composition comprising 70 to 85 wt% SiO 2 , 10 to 13 wt% Li 2 O, 3 to 7 wt% P 2 O 5 working as a nuclei formation agent, 0 to 5 wt% Al 2 O 3 for increasing a glass transition temperature and a softening point and enhancing chemical durability of glass, 0 to 2 wt% ZrO 2 , 0.5 to 3 wt% CaO for increasing a thermal expansion coefficient of the glass, 0.5 to 3 wt% Na 2 O, 0.5 to 5 wt% K 2 O, 1 to 2 wt% colorants, and 0 to 2.0 wt% mixture of MgO, ZnO, F and La 2 O 3 ; and performing a primary heat treatment at a temperature of 300 to 700°C for 1 minute to 2 hours, after the primary heat treatment, performing crystal growth through a secondary heat treatment at a temperature of 750 to 950°C for 1 minute to 2 hours. melting a glass composition comprising 70 to 85 wt% SiO 2 , 10 to 13 wt% Li 2 O, 3 to 7 wt% P 2 O 5 working as a nuclei formation agent, 0 to 5 wt% Al 2 O 3 for increasing a glass transition temperature and a softening point and enhancing chemical durability of glass, 0 to 2 wt% ZrO 2 , 0.5 to 3 wt% CaO for increasing a thermal expansion coefficient of the glass, 0.5 to 3 wt% Na 2 O, 0.5 to 5 wt% K 2 O, 1 to 2 wt% colorants, and 0 to 2.0 wt% mixture of MgO, ZnO, F and La 2 O 3 ; and performing a primary heat treatment at a temperature of 300 to 700°C for 1 minute to 2 hours, after the primary heat treatment, performing crystal growth through a secondary heat treatment at a temperature of 750 to 950°C for 1 minute to 2 hours.
A paper ball-like graphene microsphere, characterized in that the graphene microsphere is formed by pleated single-layer graphene sheets and has a diameter of 500 nm-5 μm, a density of 0.2-0.4 g/cm 3 , a carbon/oxygen ratio of 20-60, and a specific surface area of less than 200 m 2 /g.