mhurhangee/patent-ind-claim-en huggingface dataset:
Method for replacing a roller bearing of a planetary carrier of a gear unit in a nacelle of a wind turbine, comprising the following steps: - disassembling a bearing cover which covers the roller bearing; - cutting into an inner ring of the roller bearing and removing a part of a bearing shoulder of the inner ring; - cutting into an outer ring of the bearing and removing a part of the one bearing shoulder of the outer ring; - removing rolling elements of the roller bearing, wherein rolling elements in the region of the bearing close to the ground remain in the bearing, in order to centre the planetary carrier; - connecting pulling apparatuses to the roller bearing; - adjusting the planetary carrier, in order to unload the rolling elements remaining in the bearing in the region of the roller bearing close to the ground; - installing position retainers, in order to fix the planetary carrier in its position axially; - installing brace elements on the gear unit housing, in particular on the threaded holes of the bearing cover; - pulling on the pulling apparatuses, while bracing against the brace element; - disassembling the bearing from the planetary carrier; - disassembling the brace elements; - sliding the new roller bearing onto the planetary carrier, up to just before the final bearing seat; - assembling the brace elements; - centring the bearing; and - using the brace elements, in the same manner as the pulling procedure indicated above, to push the bearing into its final bearing seat. - disassembling a bearing cover which covers the roller bearing; - cutting into an inner ring of the roller bearing and removing a part of a bearing shoulder of the inner ring; - cutting into an outer ring of the bearing and removing a part of the one bearing shoulder of the outer ring; - removing rolling elements of the roller bearing, wherein rolling elements in the region of the bearing close to the ground remain in the bearing, in order to centre the planetary carrier; - connecting pulling apparatuses to the roller bearing; - adjusting the planetary carrier, in order to unload the rolling elements remaining in the bearing in the region of the roller bearing close to the ground; - installing position retainers, in order to fix the planetary carrier in its position axially; - installing brace elements on the gear unit housing, in particular on the threaded holes of the bearing cover; - pulling on the pulling apparatuses, while bracing against the brace element; - disassembling the bearing from the planetary carrier; - disassembling the brace elements; - sliding the new roller bearing onto the planetary carrier, up to just before the final bearing seat; - assembling the brace elements; - centring the bearing; and - using the brace elements, in the same manner as the pulling procedure indicated above, to push the bearing into its final bearing seat.
A circularly-woven tube for an article of footwear or apparel comprising: (a) a plurality of warp yarns , having a first elastic modulus; (b) a plurality of weft yarns , having a second elastic modulus, (c) wherein the second elastic modulus is smaller than the first elastic modulus; and wherein a first type of warp yarns is arranged in a first area and a second type of warp yarns is arranged in a second area of the circularly-woven tube , wherein the first type of warp yarns has a first bending stiffness and the second type of warp yarns has a second bending stiffness, and the second bending stiffness is greater than the first bending stiffness. (a) a plurality of warp yarns , having a first elastic modulus; (b) a plurality of weft yarns , having a second elastic modulus, (c) wherein the second elastic modulus is smaller than the first elastic modulus; and wherein a first type of warp yarns is arranged in a first area and a second type of warp yarns is arranged in a second area of the circularly-woven tube ,
A grooved noodle having a single groove or a plurality of grooves formed along a longitudinal direction of the noodle and having a substantially circular configuration in cross section, wherein the single groove or the plurality of grooves extend helically in the longitudinal direction (L) of the noodle, characterized in that the single groove or each of the plurality of grooves has a helical shape formed at a rotational pitch of 20° to 200° per a noodle length in the longitudinal direction (L) 125 times a noodle diameter (D).
Method of identifying a compound which is able to modulate the development of regulatory macrophage (Mreg)-induced regulatory T cells (iTregs), comprising the steps of: a) providing DHRS9 + CD258 + IDO + Mreg cells; b) providing T cells; c) co-culturing the DHRS9+ CD258+ IDO+ Mreg cells and the T cells to induce the development of Foxp3 + CD25 + iTreg cells; wherein a test compound is added in step a), b) or c), and d) determining whether the test compound influences the generation of Foxp3+ CD25+ iTreg cells. a) providing DHRS9 + CD258 + IDO + Mreg cells; b) providing T cells; c) co-culturing the DHRS9+ CD258+ IDO+ Mreg cells and the T cells to induce the development of Foxp3 + CD25 + iTreg cells; wherein a test compound is added in step a), b) or c), and d) determining whether the test compound influences the generation of Foxp3+ CD25+ iTreg cells.
A wireless communication terminal for use in a wireless communication system in which a carrier aggregation including a primary cell and a secondary cell is used, for performing a control not to transmit signals, or to transmit signals with a reduction in a transmission power in a part of radio resources for a downlink signal in a communication cell provided by a wireless communication base station, the wireless communication terminal comprising: a receiver that is configured to receive control information for generating a report related to a measurement result of the communication cell provided by the wireless communication base station; a radio link monitoring section that is configured to monitor a state of a radio link with an own cell, which is a communication cell in connection, the own cell corresponding either to the primary cell or to the secondary cell; a measurement section that is configured to perform a measurement on a reception of the downlink signal in the communication cell provided by the wireless communication base station; a report generator that is configured to generate a radio link failure report including a measurement result when a radio link failure occurs in the own cell; and a transmitter that is configured to transmit the radio link failure report, wherein if an instruction for restricting the measurement to a part of the radio resources is included in the control information from the wireless communication base station after the radio link failure occurs, the report generator generates the radio link failure report including a measurement result in the radio resources as instructed when the radio link failure occurs. a receiver that is configured to receive control information for generating a report related to a measurement result of the communication cell provided by the wireless communication base station; a radio link monitoring section that is configured to monitor a state of a radio link with an own cell, which is a communication cell in connection, the own cell corresponding either to the primary cell or to the secondary cell; a measurement section that is configured to perform a measurement on a reception of the downlink signal in the communication cell provided by the wireless communication base station; a report generator that is configured to generate a radio link failure report including a measurement result when a radio link failure occurs in the own cell; and a transmitter that is configured to transmit the radio link failure report, wherein if an instruction for restricting the measurement to a part of the radio resources is included in the control information from the wireless communication base station after the radio link failure occurs, the report generator generates the radio link failure report including a measurement result in the radio resources as instructed when the radio link failure occurs.
A detector for medical diagnosis, comprising: a photosensitive element used for sensing an X-beam; an X-beam stopping element used for stopping the X-beam from penetrating said photosensitive element ; a supporting board provided below the X-beam stopping element to be used for supporting said photosensitive element ; and a conductive liner provided between said photosensitive element and said supporting board to fit with said photosensitive element , wherein the detector further comprises a black ethylene film provided between said photosensitive element and said supporting board , wherein said conductive liner is provided on at least three sides of said ethylene film in the form of stripes. a photosensitive element used for sensing an X-beam; an X-beam stopping element used for stopping the X-beam from penetrating said photosensitive element ; a supporting board provided below the X-beam stopping element to be used for supporting said photosensitive element ; and a conductive liner provided between said photosensitive element and said supporting board to fit with said photosensitive element , wherein the detector further comprises a black ethylene film provided between said photosensitive element and said supporting board , wherein said conductive liner is provided on at least three sides of said ethylene film in the form of stripes.
A safety instrumented system 'SIS' , comprising: a plurality of safety controllers ; a plurality of safety input/output 'I/O' modules , the plurality of safety I/O modules coupled to a plurality of safety field devices , wherein each safety field device of the plurality of safety field device is coupled in parallel with a respective field device of a plurality of field devices in a process control system relative to processing equipment that is configured and controlled to run a process, and an I/O mesh network connected between the plurality of safety controllers and the plurality of safety I/O modules, wherein the I/O mesh network is configured for selecting any of the plurality of safety controllers to become coupled to any of the plurality of safety I/O modules to function as a pool of safety I/O modules so that any of the plurality of safety controllers are configurable to receive sensor signals from and transmit control signals to any of the safety field devices, and wherein the plurality of safety field devices are for monitoring at least a portion of process variables for the process so that when one of the plurality of safety controllers recognizes a hazardous or potentially hazardous condition regarding the processing equipment, the SIS is configured to independently take action to keep the processing equipment under control or bring it to a safe state. a plurality of safety controllers ; a plurality of safety input/output 'I/O' modules , the plurality of safety I/O modules coupled to a plurality of safety field devices , wherein each safety field device of the plurality of safety field device is coupled in parallel with a respective field device of a plurality of field devices in a process control system relative to processing equipment that is configured and controlled to run a process, and an I/O mesh network connected between the plurality of safety controllers and the plurality of safety I/O modules, wherein the I/O mesh network is configured for selecting any of the plurality of safety controllers to become coupled to any of the plurality of safety I/O modules to function as a pool of safety I/O modules so that any of the plurality of safety controllers are configurable to receive sensor signals from and transmit control signals to any of the safety field devices, and wherein the plurality of safety field devices are for monitoring at least a portion of process variables for the process so that when one of the plurality of safety controllers recognizes a hazardous or potentially hazardous condition regarding the processing equipment, the SIS is configured to independently take action to keep the processing equipment under control or bring it to a safe state.
An axle assembly comprising: an electric motor having a rotor that is rotatable about a first axis ; a rotor shaft that is operatively connected to the rotor and is rotatable about the first axis ; a drive pinion that is rotatable about a drive pinion axis and that includes a gear portion and a shaft portion ; a countershaft transmission that operatively connects the rotor shaft to the drive pinion ; and a differential assembly that is operatively connected to the drive pinion , wherein the electric motor and the countershaft transmission are positioned on opposite sides of the differential assembly , the differential assembly has a differential case and a ring gear is fixedly mounted to the differential case such that the differential case and the ring gear are rotatable about a second axis , the ring gear having a back side and a set of ring gear teeth that face away from the back side and mesh with a gear portion of the drive pinion , characterized in that the ring gear is disposed closer to the rotor shaft than the differential case is positioned to the rotor shaft , and the back side faces toward the rotor shaft . an electric motor having a rotor that is rotatable about a first axis ; a rotor shaft that is operatively connected to the rotor and is rotatable about the first axis ; a drive pinion that is rotatable about a drive pinion axis and that includes a gear portion and a shaft portion ; a countershaft transmission that operatively connects the rotor shaft to the drive pinion ; and a differential assembly that is operatively connected to the drive pinion , wherein the electric motor and the countershaft transmission are positioned on opposite sides of the differential assembly , the differential assembly has a differential case and a ring gear is fixedly mounted to the differential case such that the differential case and the ring gear are rotatable about a second axis , the ring gear having a back side and a set of ring gear teeth that face away from the back side and mesh with a gear portion of the drive pinion , characterized in that the ring gear is disposed closer to the rotor shaft than the differential case is positioned to the rotor shaft , and the back side faces toward the rotor shaft .
Monitor system with a housing comprising an insertion shaft and with a display device comprising a monitor , wherein the display device is movable between an operating position , in which it is fully extended out of the insertion shaft of the housing , and a storage position, in which it is fully arranged in the insertion shaft within the housing , in a retraction stroke direction and back by means of a lifting device , wherein - at least one optical radiation device whose wavelength of the optical radiation lies in the range from 240 nanometres up to and including 280 nanometres is arranged in the insertion shaft , - in a longitudinal direction of the monitor system , the effective length of the optical radiation device corresponds at least to the length of the display device , - a flexible optical protection screen that can be pressed against the display device , the length of which corresponds at least to the length of the display device , is arranged between the optical radiation device and a retraction opening of the insertion shaft , and - a housing circuit breaker is arranged in the housing , which switches off the optical radiation device when the housing is opened. - at least one optical radiation device whose wavelength of the optical radiation lies in the range from 240 nanometres up to and including 280 nanometres is arranged in the insertion shaft , - in a longitudinal direction of the monitor system , the effective length of the optical radiation device corresponds at least to the length of the display device , - a flexible optical protection screen that can be pressed against the display device , the length of which corresponds at least to the length of the display device , is arranged between the optical radiation device and a retraction opening of the insertion shaft , and - a housing circuit breaker is arranged in the housing , which switches off the optical radiation device when the housing is opened.
An engine harness for guiding a plurality of cables adjacent an internal combustion engine operatively connected to an electrical system of a vehicle by said plurality of cables along a cable path between the internal combustion engine and the electrical system, said engine harness substantially manufactured of a polymer foam thereby providing a protective sleeve for the plurality of cables , said engine harness further provided with at least one mount for mounting to the internal combustion engine ; characterized in that the at least one mount comprises a bracket section embedded in the polymer foam of the engine harness and having at least two flanges extending from an outer surface of the engine harness to an interior of the engine harness , and a plug section , having a plug element extending outward from the outer surface of the engine harness along a centerline normal to the cable path , wherein said at least two flanges are arranged for centering the plurality of cables with the cable path in the engine harness ; and wherein each flange of the at least two flanges comprises a plurality of elongate slots for providing an interlocking structure created between the polymer foam and mount that interlocks the mount into the engine harness .
A ceramic matrix composite (CMC) turbine blade assembly comprising: a rotor having a blade slot with at least one slot surface , the at least one slot surface being at a slot angle ; and a CMC turbine blade received in the blade slot , the CMC turbine blade comprising a dovetail root having at least one root surface , the at least one root surface being at a root angle , the root angle being at least 5 degrees greater than the slot angle ; at least one dovetail sleeve received in the blade slot of the rotor , the at least one dovetail sleeve having at least one inner surface contacting the at least one root surface and at least one outer surface contacting the at least one slot surface to radially retain the CMC turbine blade in the blade slot ; and characterised in that the local stiffness of the dovetail sleeve increases along a length of the dovetail sleeve from a middle of the dovetail sleeve toward a first end of the dovetail sleeve and a second end of the dovetail sleeve opposite the first end. a rotor having a blade slot with at least one slot surface , the at least one slot surface being at a slot angle ; and a CMC turbine blade received in the blade slot , the CMC turbine blade comprising a dovetail root having at least one root surface , the at least one root surface being at a root angle , the root angle being at least 5 degrees greater than the slot angle ; at least one dovetail sleeve received in the blade slot of the rotor , the at least one dovetail sleeve having at least one inner surface contacting the at least one root surface and at least one outer surface contacting the at least one slot surface to radially retain the CMC turbine blade in the blade slot ; and characterised in that the local stiffness of the dovetail sleeve increases along a length of the dovetail sleeve from a middle of the dovetail sleeve toward a first end of the dovetail sleeve and a second end of the dovetail sleeve opposite the first end.
A delta image sensor comprising an arrangement of pixels and a plurality of acquisition circuits corresponding to at least one pixel and formed as part of an integrated circuit, each acquisition circuit including: at least one sensor circuit comprising a photosensor configured to generate a sensor signal, VSIG, depending on a light signal illuminating the photosensor; at least one analogue to digital conversion, A/D, circuit configured to generate a digital representation corresponding to a current VSIG; at least one digital storage circuit configured to store a representation of at least one digital signal corresponding to a previous VSIG; at least one digital comparison circuit configured to compare the level of the stored representation with the current VSIG to detect whether a changed level is present; and at least one digital output circuit configured to generate an event output under the condition of the changed level, wherein the analogue to digital conversion circuit comprises a comparator, which is configured to compare the VSIG with one of the following swept signals: aa) a swept analogue input signal, and ab) sequential swept analogue input signals, where each of the swept analogue signals provides a different difference function; and wherein a repeat rate of the swept signal is chosen from one or more repeat rates in correspondence with a light source modulation of the light signal illuminating the photosensor. at least one sensor circuit comprising a photosensor configured to generate a sensor signal, VSIG, depending on a light signal illuminating the photosensor; at least one analogue to digital conversion, A/D, circuit configured to generate a digital representation corresponding to a current VSIG; at least one digital storage circuit configured to store a representation of at least one digital signal corresponding to a previous VSIG; at least one digital comparison circuit configured to compare the level of the stored representation with the current VSIG to detect whether a changed level is present; and at least one digital output circuit configured to generate an event output under the condition of the changed level, wherein the analogue to digital conversion circuit comprises a comparator, which is configured to compare the VSIG with one of the following swept signals: aa) a swept analogue input signal, and ab) sequential swept analogue input signals, where each of the swept analogue signals provides a different difference function; and aa) a swept analogue input signal, and ab) sequential swept analogue input signals, where each of the swept analogue signals provides a different difference function; and wherein a repeat rate of the swept signal is chosen from one or more repeat rates in correspondence with a light source modulation of the light signal illuminating the photosensor.
A hot-dip Al-Zn alloy coated steel sheet comprising a base steel sheet and a hot-dip coating layer formed on a surface of the base steel sheet, wherein the hot-dip coating layer contains, by mass%, Al: 25 % to 60 %, Ce: 0.5 % to 3 %, and optionally at least one selected from (A) and (B); (A) Si: 0.1 mass% to 10 mass%, (B) at least one selected from the group consisting of Mn, V, Cr, Mo, Ti, Ni, Co, Sb, Zr and B in a total amount of 0.01 % to 10 %, the balance being Zn and inevitable impurities. optionally at least one selected from (A) and (B); (A) Si: 0.1 mass% to 10 mass%, (B) at least one selected from the group consisting of Mn, V, Cr, Mo, Ti, Ni, Co, Sb, Zr and B in a total amount of 0.01 % to 10 %, (A) Si: 0.1 mass% to 10 mass%, (B) at least one selected from the group consisting of Mn, V, Cr, Mo, Ti, Ni, Co, Sb, Zr and B in a total amount of 0.01 % to 10 %, the balance being Zn and inevitable impurities.