mhurhangee/ep-ind-claims huggingface dataset:
Device for determining the carbon dioxide content of air with: - at least one carbon dioxide-sensitive gas sensor for output of a measured gas value, - an apparatus for temperature control of the gas sensor, - an apparatus for evaluating the measured gas value to determine the carbon dioxide content of the air, embodied such that - the apparatus for temperature control sets at least two different temperatures during the operation of the gas sensor, - at least one measured gas value is recorded at each of the two different temperatures, - the apparatus for evaluation determines the carbon dioxide content from the measured gas values at the different temperatures while correcting the influence of the air humidity, in that the apparatus for evaluation calculates the measured gas values together, with the assumption that the sensitivity of the gas sensor to carbon dioxide exhibits a different curve with the temperature of the gas sensor than the sensitivity to water. - at least one carbon dioxide-sensitive gas sensor for output of a measured gas value, - an apparatus for temperature control of the gas sensor, - an apparatus for evaluating the measured gas value to determine the carbon dioxide content of the air, embodied such that - the apparatus for temperature control sets at least two different temperatures during the operation of the gas sensor, - at least one measured gas value is recorded at each of the two different temperatures, - the apparatus for evaluation determines the carbon dioxide content from the measured gas values at the different temperatures while correcting the influence of the air humidity, in that the apparatus for evaluation calculates the measured gas values together, with the assumption that the sensitivity of the gas sensor to carbon dioxide exhibits a different curve with the temperature of the gas sensor than the sensitivity to water.
An offshore gravity foundation for mounting an upright construction such as a mast or components of an electricity generating wind farm such as a wind turbine generator, transformer or pole, the offshore gravity foundation comprising: - a lower section having a wide base configured to at least partly contact the sea bed, - which base is extended with a solid rim, whereby the rim is disposed around the outside periphery of the base, configured to increase the surface of the offshore gravity foundation contacting the sea bed and to receive solid ballast, - a tubular upper section which extends from the lower section, ending in an open flange suitable for attachment to said wind turbine, which upper section is configured to extend above the level of the sea, - which lower section gradually narrows from the base towards an interface with the tubular upper section, - whereby an interior void of the upper section is in continuity with an interior void of the lower section, characterized in that - the base is configured to support the weight of solid ballast residing in the interior voids and of the interior of the offshore gravity foundation, and - a midpoint of the base is raised compared with at least part of the periphery of the base from the seabed, such that the upper surface of the base inclines upwards towards the midpoint of the base with an angle of inclination ranging between 1 and 30 degrees relative to the horizon in the installed position. - a lower section having a wide base configured to at least partly contact the sea bed, - which base is extended with a solid rim, whereby the rim is disposed around the outside periphery of the base, configured to increase the surface of the offshore gravity foundation contacting the sea bed and to receive solid ballast, - a tubular upper section which extends from the lower section, ending in an open flange suitable for attachment to said wind turbine, which upper section is configured to extend above the level of the sea, - which lower section gradually narrows from the base towards an interface with the tubular upper section, - whereby an interior void of the upper section is in continuity with an interior void of the lower section, characterized in that - the base is configured to support the weight of solid ballast residing in the interior voids and of the interior of the offshore gravity foundation, and - a midpoint of the base is raised compared with at least part of the periphery of the base from the seabed, such that the upper surface of the base inclines upwards towards the midpoint of the base with an angle of inclination ranging between 1 and 30 degrees relative to the horizon in the installed position.
An apparatus for adjusting a hydraulic upper link, designed as a double-acting hydraulic cylinder, of an attachment device of an agricultural machine, the apparatus comprising a shut-off block which can be arranged on the upper link, two first hydraulic lines (11.2, 12.2), two further hydraulic lines (11.5, 12.5) and a control block, the shut-off block being configured to be connected to the upper link via the two first hydraulic lines (11.2, 12.2) and to a hydraulic system via the two further hydraulic lines (11.5, 12.5), the shut-off block having two releasable non-return valves (15, 16) which are each arranged between one of the first hydraulic lines (11.2, 12.2) and one of the further hydraulic lines (11.5, 12.5), characterized in that the shut-off block comprising the two releasable non-return valves (15, 16) is arranged integrated in the control block containing two 2/2-way valves (17, 18), in that a 2/2-way valve (17, 18) is assigned to each releasable non-return valve (15, 16), and in that the relevant 2/2-way valve (17, 18) is arranged in a bypass line (11.7, 12.7) that bypasses the associated releasable non-return valve (15, 16), the bypass lines (11.7, 12.7) being arranged in the shut-off block. the apparatus comprising a shut-off block which can be arranged on the upper link, two first hydraulic lines (11.2, 12.2), two further hydraulic lines (11.5, 12.5) and a control block, the shut-off block being configured to be connected to the upper link via the two first hydraulic lines (11.2, 12.2) and to a hydraulic system via the two further hydraulic lines (11.5, 12.5), the shut-off block having two releasable non-return valves (15, 16) which are each arranged between one of the first hydraulic lines (11.2, 12.2) and one of the further hydraulic lines (11.5, 12.5), characterized in that the shut-off block comprising the two releasable non-return valves (15, 16) is arranged integrated in the control block containing two 2/2-way valves (17, 18), in that a 2/2-way valve (17, 18) is assigned to each releasable non-return valve (15, 16), and in that the relevant 2/2-way valve (17, 18) is arranged in a bypass line (11.7, 12.7) that bypasses the associated releasable non-return valve (15, 16), the bypass lines (11.7, 12.7) being arranged in the shut-off block.
Method for transmitting data from a sensor to a receiver by means of an analogue interface, wherein identification data for identifying the type of sensor and/or a component assigned to the sensor are transmitted by the sensor during a first period and measurement signals from the sensor are transmitted after the first period, characterized by the identification of a specific sensor and/or a specific component assigned to the sensor from a group of a plurality of sensors and/or a group of a plurality of components, wherein the plurality of sensors in the corresponding group and/or the plurality of components in the corresponding group have mechanically identical interfaces.
A system, comprising: a rack having at least two vertical levels (A, B...n); an array of electronic devices disposed on the rack, each vertical level includes at least one of the electronic devices; each electronic device being configured for liquid submersion cooling by a cooling liquid; and a fluid delivery system, wherein at each vertical level the fluid delivery system includes a cooling liquid delivery manifold, a cooling liquid return manifold, a bypass line, and a pressure regulating device in the bypass line; at each vertical level the bypass line fluidly connects the cooling liquid delivery manifold and the cooling liquid return manifold; and at each vertical level the pressure regulating device regulates a pressure through the respective bypass line; wherein a fluid pressure of the cooling liquid in each electronic device of the array is substantially the same. a rack having at least two vertical levels (A, B...n); an array of electronic devices disposed on the rack, each vertical level includes at least one of the electronic devices; each electronic device being configured for liquid submersion cooling by a cooling liquid; and a fluid delivery system, wherein at each vertical level the fluid delivery system includes a cooling liquid delivery manifold, a cooling liquid return manifold, a bypass line, and a pressure regulating device in the bypass line; at each vertical level the bypass line fluidly connects the cooling liquid delivery manifold and the cooling liquid return manifold; and at each vertical level the pressure regulating device regulates a pressure through the respective bypass line; wherein a fluid pressure of the cooling liquid in each electronic device of the array is substantially the same.
A centrifugal compressor, comprising: an impeller which is provided to a shaft; a wall portion having an opposed surface that is spaced apart from and opposed to a back surface of the impeller; an insertion hole, which is formed in the wall portion, and is configured to receive the shaft inserted to the insertion hole; a bearing, which is provided in the insertion hole or apart from the impeller with respect to the insertion hole, and is configured to axially support the shaft through interposition of grease being a lubricant inside; an electric motor which is provided on a side opposite to the impeller over the wall portion; and one or a plurality of opposed holes, which is formed in the wall portion, and has one end opened in the opposed surface and another end opened at a position opposed to a stator of the electric motor on a side opposite to the impeller, characterized in that a sum total of an opening area at the one end is larger than an area of a gap formed in the opposed surface between an inner circumferential surface of the insertion hole and the shaft or a rotary member rotated integrally with the shaft. an impeller which is provided to a shaft; a wall portion having an opposed surface that is spaced apart from and opposed to a back surface of the impeller; an insertion hole, which is formed in the wall portion, and is configured to receive the shaft inserted to the insertion hole; a bearing, which is provided in the insertion hole or apart from the impeller with respect to the insertion hole, and is configured to axially support the shaft through interposition of grease being a lubricant inside; an electric motor which is provided on a side opposite to the impeller over the wall portion; and one or a plurality of opposed holes, which is formed in the wall portion, and has one end opened in the opposed surface and another end opened at a position opposed to a stator of the electric motor on a side opposite to the impeller, characterized in that a sum total of an opening area at the one end is larger than an area of a gap formed in the opposed surface between an inner circumferential surface of the insertion hole and the shaft or a rotary member rotated integrally with the shaft.
A method for controlling a wind turbine comprising a rotor with two or more blades, the method comprises, - obtaining a measurement signal (201, 202) indicative of a blade oscillation of at least one of the blades, where the measurement signal is obtained in a measurement frame of the wind turbine, - rotation-transforming the measurement signal (201, 202), or a derivative therefrom, from the measurement frame into at least one target frame based on a frequency of interest (fi) of the at least one blade to obtain a rotation-transformed signal, where the at least one target frame rotates with the frequency of interest (fi) relative to a rotation frequency (f_hub) of the rotor, and where the rotation-transformation comprises a backward or forward rotation transformation direction relative to a rotor rotation direction, - based on the rotation-transformed signal, obtaining at least one blade oscillation component of the blade oscillation acting in the backward or forward rotation direction relative to the rotor rotation direction, and - controlling the wind turbine based on the blade oscillation component. - obtaining a measurement signal (201, 202) indicative of a blade oscillation of at least one of the blades, where the measurement signal is obtained in a measurement frame of the wind turbine, - rotation-transforming the measurement signal (201, 202), or a derivative therefrom, from the measurement frame into at least one target frame based on a frequency of interest (fi) of the at least one blade to obtain a rotation-transformed signal, where the at least one target frame rotates with the frequency of interest (fi) relative to a rotation frequency (f_hub) of the rotor, and where the rotation-transformation comprises a backward or forward rotation transformation direction relative to a rotor rotation direction, - based on the rotation-transformed signal, obtaining at least one blade oscillation component of the blade oscillation acting in the backward or forward rotation direction relative to the rotor rotation direction, and - controlling the wind turbine based on the blade oscillation component.
Locking device for a refrigerator and/or freezer, comprising: a locking recess for receiving a closure hook, a closure unit for optionally locking the closure hook receivable in the locking recess, and an actuator for transferring the closure unit from a release position to a locking position and vice versa, wherein the closure unit comprises a first cam and a second cam which cooperate with each other and are disposed rotatably about a respective axis of rotation (6A, 7A), wherein the first cam is designed to retain the closure hook to be inserted into the locking recess, and the second cam is designed to block or release the first cam in a release direction for the closure hook, wherein the second cam comprises two legs (71, 72) spaced apart from each other at an angle, of which a first leg cooperates with the actuator and a second arm serves for manually actuating the device, characterised in that movement of the second leg can only be effected using a tool. a locking recess for receiving a closure hook, a closure unit for optionally locking the closure hook receivable in the locking recess, and an actuator for transferring the closure unit from a release position to a locking position and vice versa, wherein the closure unit comprises a first cam and a second cam which cooperate with each other and are disposed rotatably about a respective axis of rotation (6A, 7A), wherein the first cam is designed to retain the closure hook to be inserted into the locking recess, and the second cam is designed to block or release the first cam in a release direction for the closure hook, wherein the second cam comprises two legs (71, 72) spaced apart from each other at an angle, of which a first leg cooperates with the actuator and a second arm serves for manually actuating the device, characterised in that movement of the second leg can only be effected using a tool.
Elevator car for the transportation of people and goods, with a plurality of wall parts, - in particular wall parts in the form of a car floor, in the form of side walls, preferably at least three side walls (3, 4) and in the form of a car ceiling, - and with at least one door opening, wherein at least one wall part - in particular the car floor, the car ceiling and at least one side wall (3, 4), preferably at least two side walls (3, 4) and preferably at least three side walls (3, 4) - are manufactured from at least one thermoplastic material, wherein at least one side wall (3, 4) is connected to a conveying and/or catching device of the car via at least one load dissipation element for load dissipation, wherein the at least one load dissipation element is a flat load dissipation element, wherein the load dissipation element is connected flat to the assigned side wall (3, 4) or is integrated flat into the assigned side wall (3, 4), wherein a load dissipation element is connected to the conveying and/or catching device via at least one connecting element - preferably via a plurality of connecting elements - wherein the connecting element or the connecting elements thereby engages/engage through the plastic of the assigned side wall (3, 4) characterized in that the thermoplastic material is at least one polyolefin - in particular polyethylene and/or polypropylene - and/or a polyamide, and that an assembly comprising at least the car floor, or at least one component of the car floor, and at least one side wall connected thereto, preferably a plurality of side walls (3, 4) connected thereto, is manufactured as an integral assembly made of thermoplastic material. wherein at least one side wall (3, 4) is connected to a conveying and/or catching device of the car via at least one load dissipation element for load dissipation, wherein the at least one load dissipation element is a flat load dissipation element, wherein the load dissipation element is connected flat to the assigned side wall (3, 4) or is integrated flat into the assigned side wall (3, 4), wherein a load dissipation element is connected to the conveying and/or catching device via at least one connecting element - preferably via a plurality of connecting elements - wherein the connecting element or the connecting elements thereby engages/engage through the plastic of the assigned side wall (3, 4) characterized in that the thermoplastic material is at least one polyolefin - in particular polyethylene and/or polypropylene - and/or a polyamide, and that an assembly comprising at least the car floor, or at least one component of the car floor, and at least one side wall connected thereto, preferably a plurality of side walls (3, 4) connected thereto, is manufactured as an integral assembly made of thermoplastic material.
Use of a radioisotope adsorbent in which a compound represented by Chemical Formula 2 is bonded on the surface of silica for the separation of 90 Y from 90 Y/ 90 Sr solution: wherein M is a cation of H +, Na + or K +, and n is an integer of 1∼10.) M is a cation of H +, Na + or K +, and n is an integer of 1∼10.)
A stable composition for treating a metal surface to form a conversion or passivation coating thereon, said composition comprising: a) an aqueous solution of partial or complete condensate of organofunctional silane of the general formula: wherein R 1 is a linear, branched or cyclic divalent organic group of 1 to 12 carbon atoms forming a stable bridge between organofunctional group X and the silyl group; each occurrence of R 2 independently is alkyl, alkoxy-substituted alkyl, aryl, or aralkyl, all of from 1 to 16 carbon atoms; each occurrence of R 3 independently is hydrogen, acetyl, alkyl, or alkoxy-substituted alkyl, all of specifically from 1 to 16 carbon atoms; X is a ureido group of valence r, r is an integer of from 2 to 4; and a is an integer of from 0 to 2; which is susceptible to gel formation and/or precipitation and substantially free of hazardous air pollutant, that is, comprising a level of hazardous air pollutant which is less than 0.2 weight percent, based on the total weight of the composition, and wherein said aqueous solution is not stable; b) a stability-increasing amount of stabilizing agent, that stabilizes aqueous solution (a) and c) colloidal oxide; wherein said composition is a stable composition. a) an aqueous solution of partial or complete condensate of organofunctional silane of the general formula: wherein R 1 is a linear, branched or cyclic divalent organic group of 1 to 12 carbon atoms forming a stable bridge between organofunctional group X and the silyl group; each occurrence of R 2 independently is alkyl, alkoxy-substituted alkyl, aryl, or aralkyl, all of from 1 to 16 carbon atoms; each occurrence of R 3 independently is hydrogen, acetyl, alkyl, or alkoxy-substituted alkyl, all of specifically from 1 to 16 carbon atoms; X is a ureido group of valence r, r is an integer of from 2 to 4; and a is an integer of from 0 to 2; which is susceptible to gel formation and/or precipitation and substantially free of hazardous air pollutant, that is, comprising a level of hazardous air pollutant which is less than 0.2 weight percent, based on the total weight of the composition, and wherein said aqueous solution is not stable; b) a stability-increasing amount of stabilizing agent, that stabilizes aqueous solution (a) and c) colloidal oxide;
A communication method, said method being performed by a base station apparatus and comprising: performing, for each subframe in which downlink control information is to be transmitted, the steps of: configuring whether the downlink control information to be transmitted in said subframe is allowed to be mapped on a downlink control channel within a first resource region included in said subframe, the first resource region being available for both said downlink control channel and a downlink data channel, said method being characterized in that said step of configuring comprises determining whether said subframe is a special subframe, such that, if said determination is positive, the downlink control information is not allowed to be mapped on said downlink control channel within said first resource region, wherein the special subframe is a subframe having a gap period for switching between a downlink and an uplink in time division duplex, TDD; and mapping, if the downlink control information is not allowed to be mapped on said downlink control channel within said first resource region, said downlink control information on a downlink control channel within a second resource region included in said subframe, the second resource region being available only for said downlink control channel, and transmitting the mapped downlink control information to one or more terminals. configuring whether the downlink control information to be transmitted in said subframe is allowed to be mapped on a downlink control channel within a first resource region included in said subframe, the first resource region being available for both said downlink control channel and a downlink data channel, said method being characterized in that said step of configuring comprises determining whether said subframe is a special subframe, such that, if said determination is positive, the downlink control information is not allowed to be mapped on said downlink control channel within said first resource region, wherein the special subframe is a subframe having a gap period for switching between a downlink and an uplink in time division duplex, TDD; and mapping, if the downlink control information is not allowed to be mapped on said downlink control channel within said first resource region, said downlink control information on a downlink control channel within a second resource region included in said subframe, the second resource region being available only for said downlink control channel, and transmitting the mapped downlink control information to one or more terminals.