mhurhangee/patent-ind-claim-en huggingface dataset:
A station for a cable transportation system comprising a plurality of transporting units supported and moved outside the station by at least a cable , the station comprising: - an inlet and an outlet for the transporting units ; - a guiding device for guiding the transporting units inside the station between the inlet and the outlet; wherein the guiding device comprises an inlet guide extending from the inlet to a diverging point , a plurality of intermediate guides extending along different paths between the diverging point and a converging point ; and an outlet guide extending from the converging point to the outlet of the station ; characterised in that the station comprises: - a control unit configured for alternately feeding a plurality of transporting units along the intermediate guides and for temporary stopping the plurality of transporting units at a respective plurality of stopping points along the intermediate guides for allowing the embarking and disembarking while the plurality of transporting units are stopped. - an inlet and an outlet for the transporting units ; - a guiding device for guiding the transporting units inside the station between the inlet and the outlet; wherein the guiding device comprises an inlet guide extending from the inlet to a diverging point , a plurality of intermediate guides extending along different paths between the diverging point and a converging point ; and an outlet guide extending from the converging point to the outlet of the station ; - a control unit configured for alternately feeding a plurality of transporting units along the intermediate guides and for temporary stopping the plurality of transporting units at a respective plurality of stopping points along the intermediate guides for allowing the embarking and disembarking while the plurality of transporting units are stopped.
An electrophotographic image forming apparatus comprising: a developing unit including a photoreceptor ; a toner cartridge ; a toner buffer unit , which receives toner from the toner cartridge and which supplies the toner to the developing unit , the toner buffer unit including a first buffer unit connected to the toner cartridge , and the first buffer unit including a first conveyance member (330-1) which includes a rotation shaft and a conveyance wing arranged in the rotation shaft to transport the toner in a radial direction; and a toner level detection unit which detects a remaining amount of toner in the first buffer unit , which includes an elevation plate arranged in the first buffer unit configured to elevate according to a toner level, and which includes a sensor unit (340-2) which detects an elevation of the elevation plate , wherein the toner buffer unit is positioned between the toner cartridge and the developer unit , wherein the elevation plate is spaced apart from the conveyance wing in an axial direction of the rotation shaft , and, wherein the first buffer unit comprises a conveyance region (A1) where the conveyance wing is positioned and a detection region (A3) where the elevation plate is positioned, characterised by comprising a transportation member which transports the toner to the conveyance region (A1) is positioned in the detection region (A3). a developing unit including a photoreceptor ; a toner cartridge ; a toner buffer unit , which receives toner from the toner cartridge and which supplies the toner to the developing unit , the toner buffer unit including a first buffer unit connected to the toner cartridge , and the first buffer unit including a first conveyance member (330-1) which includes a rotation shaft and a conveyance wing arranged in the rotation shaft to transport the toner in a radial direction; and a toner level detection unit which detects a remaining amount of toner in the first buffer unit , which includes an elevation plate arranged in the first buffer unit configured to elevate according to a toner level, and which includes a sensor unit (340-2) which detects an elevation of the elevation plate , wherein the toner buffer unit is positioned between the toner cartridge and the developer unit , wherein the elevation plate is spaced apart from the conveyance wing in an axial direction of the rotation shaft , and, wherein the first buffer unit comprises a conveyance region (A1) where the conveyance wing is positioned and a detection region (A3) where the elevation plate is positioned, characterised by comprising a transportation member which transports the toner to the conveyance region (A1) is positioned in the detection region (A3).
Device for preparing freshly brewed hot beverages, having at least one hot water generator and having a brewing device which is suppliable with hot water from the hot water generator , the hot water generator being a continuous flow heater, having a controller for actuating the continuous flow heater , which controller is configured in such a way that the continuous flow heater is switched on for drawing a preset quantity of hot water and is switched off shortly before the quantity of hot water has been fully dispensed so that the temperature of the hot water at the outlet of the continuous flow heater decreases towards the end of the drawing operation, characterised in that the device comprises a drainage valve which is arranged downstream of the continuous flow heater in the throughflow direction and via which water flowing through the continuous flow heater , instead of being conducted in the direction of the brewing device , can be conducted directly into a wastewater line or a wastewater collection container, and the controller is configured to close a directional control valve between the continuous flow heater and the brewing device after the end of a hot water drawing operation, to open the drainage valve and, when the continuous flow heater is switched off, to activate a flow of water through the continuous flow heater again in order to cool the continuous flow heater .
An ethylene-propylene-diene monomer (EPDM) rubber composition, comprising: 100 parts by weight of an EPDM rubber having a Mooney viscosity (ML 1+8 at 125°C) value of 90 or more and a content of 5-ethylidene-2-norbornene (ENB) of 9 wt% or more, and does not include oil; from 0.5 to 1.0 parts by weight of free sulfur; and from 0.5 to 1.5 parts by weight of 1,6-bis(N,N-dibenzylthiocarbamoyldithio)-hexane (BDBzTH), and wherein the Mooney viscosity (ML 1+8 at 125°C) is measured by JIS K 6300. 100 parts by weight of an EPDM rubber having a Mooney viscosity (ML 1+8 at 125°C) value of 90 or more and a content of 5-ethylidene-2-norbornene (ENB) of 9 wt% or more, and does not include oil; from 0.5 to 1.0 parts by weight of free sulfur; and from 0.5 to 1.5 parts by weight of 1,6-bis(N,N-dibenzylthiocarbamoyldithio)-hexane (BDBzTH), and wherein the Mooney viscosity (ML 1+8 at 125°C) is measured by JIS K 6300.
Water-conducting household appliance, in particular a dishwasher, having a liquid line in which a valve is arranged, which has a displaceable valve element which cooperates with a valve seat for opening and closing the valve , wherein the valve seat is at least partially formed having a substantially sharp-edged tear-off edge with which during a closing operation of the valve dirt particles can be severed between the valve seat and the valve element , and wherein in the open state of the valve the valve element is displaced via a valve lift away from the valve seat , as a result of which a flow gap to a discharge opening is exposed, which permits a flow of liquid through the valve , characterised in that in the closed state of the valve the displaceable valve element is pressed in a liquid-tight manner lying against the tear-off edge.
A driver for LED lighting having a plurality of LEDs , the driver adapted to receive AC input power from an AC power source and including: a voltage multiplier for supplying a rectified output power to the LEDs to produce a luminous flux; characterized in that the driver further includes: an input inductor adapted to connect between the AC power source and the voltage multiplier , the input inductor thereby converting the AC power source from a voltage source to a current source to provide a limited AC current to the voltage multiplier ; an input capacitor adapted to connect across the AC power source before the input inductor ; and a smoothing capacitor to smooth the rectified output power; the driver being free from valley-fill circuits, active switches, and electrolytic capacitors.
A device upgrade method, wherein the method comprises: creating a target virtualised network function component, VNFC, by using an initial network functions virtualisation infrastructure, NFVI, resource, wherein the target VNFC comprises at least one target virtual machine, and NFVI resources occupied by the target VNFC are fewer than those occupied by a to-be-upgraded VNFC; migrating a service carried by a first to-be-migrated virtual machine group to the target virtual machine and/or a second to-be-migrated virtual machine group, wherein the first to-be-migrated virtual machine group comprises some virtual machines in the to-be-upgraded VNFC, and the second to-be-migrated virtual machine group comprises a virtual machine in the to-be-upgraded VNFC except the first to-be-migrated virtual machine group; releasing an NFVI resource occupied by the first to-be-migrated virtual machine group; performing a first scale-out/up on the target VNFC by using an NFVI resource in a resource pool, wherein the resource pool comprises an NFVI resource obtained by releasing the first to-be-migrated virtual machine group; and migrating a service carried by the second to-be-migrated virtual machine group to a target VNFC obtained after the first scale-out/up. creating a target virtualised network function component, VNFC, by using an initial network functions virtualisation infrastructure, NFVI, resource, wherein the target VNFC comprises at least one target virtual machine, and NFVI resources occupied by the target VNFC are fewer than those occupied by a to-be-upgraded VNFC; migrating a service carried by a first to-be-migrated virtual machine group to the target virtual machine and/or a second to-be-migrated virtual machine group, wherein the first to-be-migrated virtual machine group comprises some virtual machines in the to-be-upgraded VNFC, and the second to-be-migrated virtual machine group comprises a virtual machine in the to-be-upgraded VNFC except the first to-be-migrated virtual machine group; releasing an NFVI resource occupied by the first to-be-migrated virtual machine group; performing a first scale-out/up on the target VNFC by using an NFVI resource in a resource pool, wherein the resource pool comprises an NFVI resource obtained by releasing the first to-be-migrated virtual machine group; and migrating a service carried by the second to-be-migrated virtual machine group to a target VNFC obtained after the first scale-out/up.
A machine for forming a multi-layer strand of pocketed springs , the machine comprising: an alignment mechanism for receiving at least a first strand of pocketed springs and a second strand of pocketed springs , the alignment mechanism being configured to align a first pocketed spring of the first strand in a coaxial manner with a second pocketed spring of the second strand so that a first seam portion of pocket material at an end of the first pocketed spring overlaps with a second seam portion at an end of the second pocketed spring ; a welding mechanism configured to weld the first seam portion to the second seam portion . an alignment mechanism for receiving at least a first strand of pocketed springs and a second strand of pocketed springs , the alignment mechanism being configured to align a first pocketed spring of the first strand in a coaxial manner with a second pocketed spring of the second strand so that a first seam portion of pocket material at an end of the first pocketed spring overlaps with a second seam portion at an end of the second pocketed spring ; a welding mechanism configured to weld the first seam portion to the second seam portion .
A semiconductor device comprising: a processor ; a memory ; an external interface ; a plurality of registers for storing data received by the external interface , the data stored in the registers being given a predetermined address per register; a mirror register buffer ; and an internal bus connected to the processor , the memory , the external interface , the registers , and the mirror register buffer , wherein the registers are configured to output the data directly to the mirror register buffer without passing through the internal bus , and wherein the mirror register buffer (60; 160) is configured to set addresses to the data input from the registers , the addresses being different from the addresses assigned to the registers , and transfer the data directly to the memory without passing through the internal bus , wherein the mirror register buffer is configured to set the addresses by making a grouping of the data input from the plurality of registers while giving a same group address and consecutive addresses to a plurality of items of the data. a processor ; a memory ; an external interface ; a plurality of registers for storing data received by the external interface , the data stored in the registers being given a predetermined address per register; a mirror register buffer ; and an internal bus connected to the processor , the memory , the external interface , the registers , and the mirror register buffer , wherein the registers are configured to output the data directly to the mirror register buffer without passing through the internal bus , and wherein the mirror register buffer (60; 160) is configured to set addresses to the data input from the registers , the addresses being different from the addresses assigned to the registers , and transfer the data directly to the memory without passing through the internal bus , wherein the mirror register buffer is configured to set the addresses by making a grouping of the data input from the plurality of registers while giving a same group address and consecutive addresses to a plurality of items of the data.
A compressor outlet housing comprising: a housing body having a volute and a radially inwardly extending wall extending from a radially inner surface of said volute, and said radially inwardly extending wall extending inwardly to a ledge , a radially inwardly extending web extending to a bearing support , and a fillet which will face an impeller when said compressor outlet housing is mounted in a compressor, said fillet connecting said ledge to said web; and characterised by an erosion resistant coating being formed at least on said fillet, and further wherein a first radial distance is defined between a radially innermost surface of said ledge to a radially outermost surface of said bearing support, and measured perpendicular a central axis of said bearing support and a second radial distance is defined from a radially innermost end of said coating to said radially outermost surface of said bearing support also measured perpendicular to said central axis of said bearing support and a ratio of said first radial distance to said second radial distance is between 1.1 and 2.0, and wherein a third axial distance is defined between an axially forward end of said ledge to an axially forward end of said wall and a fourth axial distance being defined from an axially forward end of said coating to said axially forward end of said ledge along a line parallel to said central axis, and said ratio of said third axial distance to said fourth axial distance is between 1.1 and 2.0. a housing body having a volute and a radially inwardly extending wall extending from a radially inner surface of said volute, and said radially inwardly extending wall extending inwardly to a ledge , a radially inwardly extending web extending to a bearing support , and a fillet which will face an impeller when said compressor outlet housing is mounted in a compressor, said fillet connecting said ledge to said web; and characterised by an erosion resistant coating being formed at least on said fillet, and further wherein a first radial distance is defined between a radially innermost surface of said ledge to a radially outermost surface of said bearing support, and measured perpendicular a central axis of said bearing support and a second radial distance is defined from a radially innermost end of said coating to said radially outermost surface of said bearing support also measured perpendicular to said central axis of said bearing support and a ratio of said first radial distance to said second radial distance is between 1.1 and 2.0, and wherein a third axial distance is defined between an axially forward end of said ledge to an axially forward end of said wall and a fourth axial distance being defined from an axially forward end of said coating to said axially forward end of said ledge along a line parallel to said central axis, and said ratio of said third axial distance to said fourth axial distance is between 1.1 and 2.0.
A data processing system, the system comprising: a data detector circuit operable to apply a data detection algorithm to a data input to yield a detected output ; a data decoder circuit operable to apply a data decoding algorithm to the detected output to yield a decoded data set ; an inter-track interference cancellation circuit operable to calculate an estimated inter-track interference between an element of a first data set derived from a selected track on a storage medium and one or more elements of a second data set derived from a track adjacent to the selected track on the storage medium, wherein the inter-track interference is calculated based at least in part on a feedback derived from the decoded data set corresponding to the first data set and hard decision data corresponding to the second data set, wherein the data input is a first data input, and wherein the inter-track interference cancellation circuit is operable to subtract the inter-track interference from a second data input to yield the first data input, and wherein the feedback comprises (i) a hard decision output derived from the decoded data set corresponding to the first data set in case of retry processing when the data decoding algorithm fails to converge or (ii) a de-interleaved version of the decoded output in case of standard processing. a data detector circuit operable to apply a data detection algorithm to a data input to yield a detected output ; a data decoder circuit operable to apply a data decoding algorithm to the detected output to yield a decoded data set ; an inter-track interference cancellation circuit operable to calculate an estimated inter-track interference between an element of a first data set derived from a selected track on a storage medium and one or more elements of a second data set derived from a track adjacent to the selected track on the storage medium, wherein the inter-track interference is calculated based at least in part on a feedback derived from the decoded data set corresponding to the first data set and hard decision data corresponding to the second data set, wherein the data input is a first data input, and wherein the inter-track interference cancellation circuit is operable to subtract the inter-track interference from a second data input to yield the first data input, and wherein the feedback comprises (i) a hard decision output derived from the decoded data set corresponding to the first data set in case of retry processing when the data decoding algorithm fails to converge or (ii) a de-interleaved version of the decoded output in case of standard processing.
A stringer-less fuselage structure comprising: a composite fuselage skin including a plurality of tear straps formed in the composite fuselage skin, each tear strap extending generally along a longitudinal axis (L) of the composite fuselage skin ; and a plurality of frames supporting an interior surface of the composite fuselage skin , the frames being spaced apart along the longitudinal axis (L) of the composite fuselage skin; characterised in that each tear strap comprises a region of the composite fuselage skin that has an increased thickness and that extends radially inwardly from the interior surface of the composite fuselage skin . a composite fuselage skin including a plurality of tear straps formed in the composite fuselage skin, each tear strap extending generally along a longitudinal axis (L) of the composite fuselage skin ; and a plurality of frames supporting an interior surface of the composite fuselage skin , the frames being spaced apart along the longitudinal axis (L) of the composite fuselage skin; characterised in that each tear strap comprises a region of the composite fuselage skin that has an increased thickness and that extends radially inwardly from the interior surface of the composite fuselage skin .
Method for controlling an apparatus , in which a process takes place, - wherein the process is controlled by setting at least one action parameter , characterized in that - a process response of the process on the at least one action parameter is measured, - wherein, by measuring the process response , - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system , which carries out the process, is acquired, - the measured process response is evaluated by means of an evaluation in a computer-implemented manner based on a predetermined preset target value for the measured process response , and - at least one set value of the at least one action parameter is adjusted in a computer-implemented manner based on the evaluation , - wherein at least one optimized set value for the at least one action parameter is independently learned by the apparatus in a computer-implemented manner based on several evaluations derived by the apparatus from a respective process response , in each case in reaction to set values of the at least one action parameter specified by the apparatus . - wherein the process is controlled by setting at least one action parameter , characterized in that - a process response of the process on the at least one action parameter is measured, - wherein, by measuring the process response , - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system , which carries out the process, is acquired, - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system , which carries out the process, is acquired, - the measured process response is evaluated by means of an evaluation in a computer-implemented manner based on a predetermined preset target value for the measured process response , and - at least one set value of the at least one action parameter is adjusted in a computer-implemented manner based on the evaluation , - wherein at least one optimized set value for the at least one action parameter is independently learned by the apparatus in a computer-implemented manner based on several evaluations derived by the apparatus from a respective process response , in each case in reaction to set values of the at least one action parameter specified by the apparatus .