mhurhangee/patent-ind-claim-en huggingface dataset:
Process for preparing plates for cylinders to crease items of the paper processing industry, the process comprising the following steps of: - a) acquiring a pattern of the creasing lines to be made on the item of the paper processing industry, characterised by the following steps of: - b) making, on a reference sheet , through openings depending on the pattern of the creasing lines, the through openings being adapted to position creasing profile elements ; - c) applying the creasing profile elements on the plate at the through openings of the reference sheet , the reference sheet being positioned on the plate . - a) acquiring a pattern of the creasing lines to be made on the item of the paper processing industry, characterised by the following steps of: - b) making, on a reference sheet , through openings depending on the pattern of the creasing lines, the through openings being adapted to position creasing profile elements ; - c) applying the creasing profile elements on the plate at the through openings of the reference sheet , the reference sheet being positioned on the plate . - b) making, on a reference sheet , through openings depending on the pattern of the creasing lines, the through openings being adapted to position creasing profile elements ; - c) applying the creasing profile elements on the plate at the through openings of the reference sheet , the reference sheet being positioned on the plate .
A method for reducing power consumption in a mobile wireless device, the method comprising: during operation of the mobile wireless device receiving location signals at the mobile wireless device ; determining a change of position of the mobile wireless device from the location signals ; decreasing a period of time between network scans in response to the change of position being greater than a first predetermined distance, wherein the first predetermined distance is based at least in part on a coverage of an access point; and increasing the period of time between network scans in response to the change of position being smaller than a second predetermined distance. receiving location signals at the mobile wireless device ; determining a change of position of the mobile wireless device from the location signals ; decreasing a period of time between network scans in response to the change of position being greater than a first predetermined distance, wherein the first predetermined distance is based at least in part on a coverage of an access point; and increasing the period of time between network scans in response to the change of position being smaller than a second predetermined distance. decreasing a period of time between network scans in response to the change of position being greater than a first predetermined distance, wherein the first predetermined distance is based at least in part on a coverage of an access point; and increasing the period of time between network scans in response to the change of position being smaller than a second predetermined distance.
A flow-by electrode unit for a redox flow battery, comprising a flow-by electrode (50; 55) including a substrate and having at least one surface structure including a plurality of flow barriers and a plurality of flow channels formed by or between said flow barriers , wherein one or more of the flow barriers has/have a U-shape or banana-like shape.
Heat-dissipating device comprising a support and a heat sink intended to be cooled by a flow of air passing through said heat sink , said support having a first housing space inside which said heat sink is held, said support also being configured to accommodate an electronic control module intended to be cooled by said heat sink , characterized in that said heat sink is flexible.
A system , comprising: at least one data processor ; and at least one memory storing instructions which, when executed by the at least one data processor , result in operations comprising: generating, based at least on a representation of a first hierarchy stored in a database , a visiting sequence data structure, the first hierarchy being stored in a table in the database , each of a plurality of rows of the table corresponding to one of a plurality of nodes (270a-g) of the first hierarchy , and the visiting sequence data structure include a first row vector specifying an order for traversing the plurality of nodes (270a-g) in the first hierarchy ; and executing a hierarchical window function by at least iterating through the plurality of rows of the table in accordance with the order specified by the first row vector and determining, for a first node in the first hierarchy , a summary value corresponding to a first value of the first node and a second value of a second node descendent from the first node. at least one data processor ; and at least one memory storing instructions which, when executed by the at least one data processor , result in operations comprising: generating, based at least on a representation of a first hierarchy stored in a database , a visiting sequence data structure, the first hierarchy being stored in a table in the database , each of a plurality of rows of the table corresponding to one of a plurality of nodes (270a-g) of the first hierarchy , and the visiting sequence data structure include a first row vector specifying an order for traversing the plurality of nodes (270a-g) in the first hierarchy ; and executing a hierarchical window function by at least iterating through the plurality of rows of the table in accordance with the order specified by the first row vector and determining, for a first node in the first hierarchy , a summary value corresponding to a first value of the first node and a second value of a second node descendent from the first node. generating, based at least on a representation of a first hierarchy stored in a database , a visiting sequence data structure, the first hierarchy being stored in a table in the database , each of a plurality of rows of the table corresponding to one of a plurality of nodes (270a-g) of the first hierarchy , and the visiting sequence data structure include a first row vector specifying an order for traversing the plurality of nodes (270a-g) in the first hierarchy ; and executing a hierarchical window function by at least iterating through the plurality of rows of the table in accordance with the order specified by the first row vector and determining, for a first node in the first hierarchy , a summary value corresponding to a first value of the first node and a second value of a second node descendent from the first node.
A rotational input device comprising: an insulating substrate ; a sensor element disposed on the insulating substrate; and a magnetic substance spaced close to the sensor element, the sensor element including a detection mechanism configured to detect orientations of magnetic field lines (H1) around the sensor element and having a sensor element parallel surface facing the magnetic substance, the magnetic substance having a bottom surface that is located adjacent to the sensor element so as to face the sensor element parallel surface characterized in that the magnetic substance includes two ridges that protrude from the bottom surface toward the sensor element and extend parallel to each other, the two ridges each having a ridge parallel surface located adjacent to the sensor element such that the ridge parallel surface is substantially parallel to the sensor element parallel surface, the ridge parallel surface having a substantially rectangular shape in plan view, the magnetic substance being magnetized in a magnetization direction (M1) identical to a longitudinal direction of the ridges. an insulating substrate ; a sensor element disposed on the insulating substrate; and a magnetic substance spaced close to the sensor element, the sensor element including a detection mechanism configured to detect orientations of magnetic field lines (H1) around the sensor element and having a sensor element parallel surface facing the magnetic substance, the magnetic substance having a bottom surface that is located adjacent to the sensor element so as to face the sensor element parallel surface characterized in that the magnetic substance includes two ridges that protrude from the bottom surface toward the sensor element and extend parallel to each other, the two ridges each having a ridge parallel surface located adjacent to the sensor element such that the ridge parallel surface is substantially parallel to the sensor element parallel surface, the ridge parallel surface having a substantially rectangular shape in plan view, the magnetic substance being magnetized in a magnetization direction (M1) identical to a longitudinal direction of the ridges.
An analyzer for analyzing a sample from a sampling device , the analyzer comprising: a pump ; a valve fluidically coupled to the pump ; a port having a fluid connection to the valve and configured to engage with the sampling device ; a first storage channel fluidically coupled to the valve ; an analysis channel fluidically coupled to the valve ; a detector optically coupled to the analysis channel ; a plurality of first assay packets stored in the first storage channel , the plurality of first assay packets composed of prealiquoted reagents for a single determination separated by bounding slugs comprising fluids substantially immiscible with reagent liquids; and a controller operatively coupled to the pump and to the valve . a pump ; a valve fluidically coupled to the pump ; a port having a fluid connection to the valve and configured to engage with the sampling device ; a first storage channel fluidically coupled to the valve ; an analysis channel fluidically coupled to the valve ; a detector optically coupled to the analysis channel ; a plurality of first assay packets stored in the first storage channel , the plurality of first assay packets composed of prealiquoted reagents for a single determination separated by bounding slugs comprising fluids substantially immiscible with reagent liquids; and a controller operatively coupled to the pump and to the valve .
System for conductively charging a motor vehicle, comprising a charging device with a motor-adjustable lifting device configured as a scissor table , which can vertically position an electrical contacting unit , and a receiving device for the contacting unit , which receiving device is arranged on a motor vehicle, wherein, that the contacting unit is cylindrical or frusto-conical and has a plurality of contact rings running around its lateral surface, that the receiving device has a receiving chamber for the contacting unit , and that the receiving device has several radially positionable contact bodies around the receiving chamber , which in one position electrically contact the contact rings of the contacting unit inserted in the receiving chamber and at the same time mechanically fix the contacting unit to the receiving device within the receiving chamber , that the position of the contact bodies is controlled by a control device on the vehicle side, that the charging device has means by which it can mechanically preload the contacting unit fixed in the receiving device in the axial direction, characterized in that the receiving device has at least two and preferably three contact bodies . that the receiving device has a receiving chamber for the contacting unit , and that the receiving device has several radially positionable contact bodies around the receiving chamber , which in one position electrically contact the contact rings of the contacting unit inserted in the receiving chamber and at the same time mechanically fix the contacting unit to the receiving device within the receiving chamber , that the position of the contact bodies is controlled by a control device on the vehicle side, that the charging device has means by which it can mechanically preload the contacting unit fixed in the receiving device in the axial direction, characterized in that the receiving device has at least two and preferably three contact bodies .
An underwater docking station for communication with one or more underwater devices , the underwater docking station comprising: - a support structure comprising a base portion , a top portion and in particular a mechanism interposed between the base portion and the top portion to allow moving the base portion away from the top portion defining an housing space for receiving the underwater device between the base portion and the top portion and to allow reducing or removing the housing space defining a compact configuration of the underwater docking station; - an optical communication module configured for communication with said one or more underwater devices along an optical communication axis ; - a coupling arrangement mounting the optical communication module to the support structure ; - an actuator active on the optical communication module to move the optical communication axis between at least one first operative position and one second operative position, wherein, in the first operative position, the communication axis is directed along a first communication direction and, in the second operative position, the communication axis is directed along a second communication direction different from the first communication direction ; - a control unit connected to: ∘ the optical communication module to manage a communication with said one or more underwater devices , and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position. - a support structure comprising a base portion , a top portion and in particular a mechanism interposed between the base portion and the top portion to allow moving the base portion away from the top portion defining an housing space for receiving the underwater device between the base portion and the top portion and to allow reducing or removing the housing space defining a compact configuration of the underwater docking station; - an optical communication module configured for communication with said one or more underwater devices along an optical communication axis ; - a coupling arrangement mounting the optical communication module to the support structure ; - an actuator active on the optical communication module to move the optical communication axis between at least one first operative position and one second operative position, wherein, in the first operative position, the communication axis is directed along a first communication direction and, in the second operative position, the communication axis is directed along a second communication direction different from the first communication direction ; - a control unit connected to: ∘ the optical communication module to manage a communication with said one or more underwater devices , and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position. ∘ the optical communication module to manage a communication with said one or more underwater devices , and ∘ the actuator to drive the optical communication axis to the first operative position and to the second operative position.
A dicarboxylic acid bisamide derivative of general formula: wherein: R 1 is a group selected from: and and R 2 is a group selected from: -C(O)-(CH 2 ) 0 -C(O)-, -C(O)-(CH 2 ) 1 -C(O)-, -C(O)-(CH 2 ) 2 -C(O)-, -C(O)-(CH 2 ) 3 -C(O)-, -C(O)-(CH 2 ) 4 -C(O)-, -C(O)(CH 3 )-CH 2 -C(O)-, and -C(O)-CH 2 -C(CH 3 ) 2 -CH 2 -C(O)-, or a group selected from or a pharmaceutically acceptable salt thereof, with a proviso that the compound is not a compound, wherein: R 1 is and R 2 is -C(O)-(CH 2 ) 3 -C(O)-; a compound, wherein: R 1 is and R 2 is -C(O)-(CH 2 ) 4 -C(O)- R 1 is a group selected from: and and R 2 is a group selected from: -C(O)-(CH 2 ) 0 -C(O)-, -C(O)-(CH 2 ) 1 -C(O)-, -C(O)-(CH 2 ) 2 -C(O)-, -C(O)-(CH 2 ) 3 -C(O)-, -C(O)-(CH 2 ) 4 -C(O)-, -C(O)(CH 3 )-CH 2 -C(O)-, and -C(O)-CH 2 -C(CH 3 ) 2 -CH 2 -C(O)-, or a group selected from or a pharmaceutically acceptable salt thereof, with a proviso that the compound is not a compound, wherein: R 1 is and R 2 is -C(O)-(CH 2 ) 3 -C(O)-; a compound, wherein: R 1 is and R 2 is -C(O)-(CH 2 ) 4 -C(O)- R 1 is and R 2 is -C(O)-(CH 2 ) 3 -C(O)-; a compound, wherein: R 1 is and R 2 is -C(O)-(CH 2 ) 4 -C(O)-
A shelf-stable cooking aid for coating and frying a food product, the cooking aid comprising: i) oil in an amount of 2-28% (by weight of the total composition); ii) water in an amount of 20-60% (by weight of the total composition); iii) modified starch in an amount of 2.3-5.5% (by weight of the total composition); iv) salt in an amount of 3-15% (by weight of the total composition); v) sugar in an amount of 0.5-30% (by weight of the total composition); vi) flavourings in an amount of 0.5-30% (by weight of the total composition; and wherein the cooking aid has a viscosity in the range of 8 to 60 Pa.s at a shear rate of 1s -1 at 25°C, and the oil and water are in form of an emulsion. i) oil in an amount of 2-28% (by weight of the total composition); ii) water in an amount of 20-60% (by weight of the total composition); iii) modified starch in an amount of 2.3-5.5% (by weight of the total composition); iv) salt in an amount of 3-15% (by weight of the total composition); v) sugar in an amount of 0.5-30% (by weight of the total composition); vi) flavourings in an amount of 0.5-30% (by weight of the total composition;
A box-shaped UV disinfection system (100; 200; 500; 600) having at least a displaceable wall and comprising a plurality of discrete UV sources (121, 122, 131, 132, 141, 142; 221, 222, 223, 241, 242, 243; 521, 522, 531, 532) disposed therein, but not present on at least one of the walls, and an internal UV-transmitting support (101; 201; 501, 501', 501", 501′′′; 601, 601', 601", 601′′′), wherein all of the internal wall surfaces have a reflectance higher than 80% and preferably higher than 87% in the wavelengths range between 250 and 350 nm, said discrete UV sources (121, 122, 131, 132, 141, 142; 221, 222, 223, 241, 242, 243; 521, 522, 531, 532) are disposed on at least two of its walls (110, 120, 130, 140, 150, 160; 210, 220, 230, 240; 510, 520, 530) that are adjacent to each other, and said UV-transmitting support (101; 201; 501, 501', 501", 501′′′; 601, 601', 601", 601′′′) has at least a 70% UV transmittance in the wavelengths range between 250 and 350 nm and is located at a minimum distance d1 from a base wall (110; 210; 510) and at a maximum distance d2 from an opposite upper wall (120; 220; 520) such that 0.1≤d1/(d1+d2)<0.5, and preferably 0.15≤d1/(d1+d2)<0.4, characterized in that the discrete UV sources (131, 132, 141, 142; 241, 242, 243; 531, 532) disposed on at least one of the walls (130, 140; 240; 530) are inclined towards the base wall (110; 210; 510) with an angle comprised between 5° and 30°.
Method for controlling a driving behavior of an autonomously driving vehicle , wherein a processing device performs the following steps for at least one predefined region of a road network: - receiving trace data of the region , wherein the trace data describe at least one trace of historic movements and/or behaviors of past traffic participants in the region , wherein the respective trace comprises o a remaining trace as it results from several repeated events that are based on the habitual behavior, and/or o an old architectural layout of the road network in the region , and/or o formerly valid traffic regulations, and the movements and/or behaviors are incompatible with and/or not anticipated by traffic regulations currently valid in the region ; - deriving rule data describing regular movements and/or behaviors of the past traffic participants described by the trace data ; - providing the rule data to a motion model of the vehicle , the motion model being designed to perform a prediction of a typical motion of an average traffic participant, wherein the vehicle comprises a driving control system (DCS) that plans and/or adapts a driving trajectory by detecting at least one traffic participant in the region and predicting a future behavior (B) of the respective detected traffic participant using the motion model . - receiving trace data of the region , wherein the trace data describe at least one trace of historic movements and/or behaviors of past traffic participants in the region , wherein the respective trace comprises o a remaining trace as it results from several repeated events that are based on the habitual behavior, and/or o an old architectural layout of the road network in the region , and/or o formerly valid traffic regulations, and the movements and/or behaviors are incompatible with and/or not anticipated by traffic regulations currently valid in the region ; o a remaining trace as it results from several repeated events that are based on the habitual behavior, and/or o an old architectural layout of the road network in the region , and/or o formerly valid traffic regulations, and - deriving rule data describing regular movements and/or behaviors of the past traffic participants described by the trace data ; - providing the rule data to a motion model of the vehicle , the motion model being designed to perform a prediction of a typical motion of an average traffic participant, wherein the vehicle comprises a driving control system (DCS) that plans and/or adapts a driving trajectory by detecting at least one traffic participant in the region and predicting a future behavior (B) of the respective detected traffic participant using the motion model .
Process for cryogenic separation of air in a separation column system comprising a high-pressure column , a low-pressure column , a main condenser , which is a condenser-evaporator having a liquefaction space and an evaporation space and brings high-pressure column top and low-pressure column bottom in heat-exchange relationship, and a crude argon column having an argon top condenser , which is a condenser-evaporator having a liquefaction space and an evaporation space, comprising - compressing a total feed air stream , - cooling the compressed feed air in a main heat exchanger , - introducing at least a portion of the feed air into the high-pressure column , - introducing at least one fraction from the high-pressure column directly or indirectly to the low-pressure column , - introducing an argon transition fraction from the low-pressure column to the crude argon column , - introducing a liquid cooling fraction from the high-pressure column into the evaporation space of the argon top condenser , - withdrawing a gaseous oxygen stream from the low-pressure column , - mixing the gaseous oxygen stream with another gas stream having a higher nitrogen content than the gaseous oxygen stream to form a mixed gas stream , - warming the mixed gas stream in the main heat exchanger , - work expanding the warmed mixed gas stream in an expansion machine and - completely warming the expanded mixed gas stream in the main heat exchanger , characterized in that the above stream having a higher nitrogen content is withdrawn from the evaporation space of the argon top condenser . - compressing a total feed air stream , - cooling the compressed feed air in a main heat exchanger , - introducing at least a portion of the feed air into the high-pressure column , - introducing at least one fraction from the high-pressure column directly or indirectly to the low-pressure column , - introducing an argon transition fraction from the low-pressure column to the crude argon column , - introducing a liquid cooling fraction from the high-pressure column into the evaporation space of the argon top condenser , - withdrawing a gaseous oxygen stream from the low-pressure column , - mixing the gaseous oxygen stream with another gas stream having a higher nitrogen content than the gaseous oxygen stream to form a mixed gas stream , - warming the mixed gas stream in the main heat exchanger , - work expanding the warmed mixed gas stream in an expansion machine and - completely warming the expanded mixed gas stream in the main heat exchanger ,