mhurhangee/ep-ind-claims huggingface dataset:
A fitting part for a drive rod fitting of a window frame, a French window frame or the like, consisting of rails, wherein the rail is made preferably from a light metal, having a drive rod to be arranged longitudinally displaceably in a fitting groove of at least one rail and having a cover of the drive rod, with at least one latching hook of the cover for latching in the fitting groove and with a guide on the cover for the drive rod, characterized in that the guide for the drive rod is designed as a hook (19, 20) engaging behind the drive rod, and that the cover has a front side covering the fitting groove and that the latching hook for latching in the fitting groove and the hooks (19, 20) for the engagement behind the drive rod are arranged on different arms (17, 18, 27) located on the one rear side of the cover.
A method of transferring rods or tubes for use in smoking article manufacturing comprising: feeding a plurality of rods or tubes into a hopper; feeding the rods or tubes through the hopper using agitation and gravity to align the rods or tubes in a single-file stacked configuration; and transferring the rods or tubes, characterized in that the rods or tubes are transferred to a position for insertion in a tobacco column with pushers on a first continuous cable. feeding a plurality of rods or tubes into a hopper; feeding the rods or tubes through the hopper using agitation and gravity to align the rods or tubes in a single-file stacked configuration; and transferring the rods or tubes,
A traverse hardening device for performing traverse hardening on a shaft-like body, the shaft-like body including: a main body part; a first small-diameter part (103A,103B) provided at an end portion of the main body part on one side in an axial direction and having an outer diameter smaller than that of the main body part; and a second small-diameter part (104A, 104B) provided at an end portion of the first small-diameter part (103A, 103B) on one side in the axial direction and having an outer diameter smaller than that of the first small-diameter part (103A, 103B), the traverse hardening device comprising: a primary coil member which is formed in an annular shape, through which a high-frequency current is caused to flow, and which is externally disposed around the main body part; a secondary coil member (16A,16B) formed in an annular shape, externally disposed around the first small-diameter part (103A,103B) of the shaft-like body, and being able to be disposed in the primary coil member; and a tertiary coil member (26A,26B) formed in an annular shape, externally disposed around the second small-diameter part (104A, 104B) of the shaft-like body, and being able to be disposed in the secondary coil member (16A,16B). a main body part; a first small-diameter part (103A,103B) provided at an end portion of the main body part on one side in an axial direction and having an outer diameter smaller than that of the main body part; and a second small-diameter part (104A, 104B) provided at an end portion of the first small-diameter part (103A, 103B) on one side in the axial direction and having an outer diameter smaller than that of the first small-diameter part (103A, 103B), the traverse hardening device comprising: a primary coil member which is formed in an annular shape, through which a high-frequency current is caused to flow, and which is externally disposed around the main body part; a secondary coil member (16A,16B) formed in an annular shape, externally disposed around the first small-diameter part (103A,103B) of the shaft-like body, and being able to be disposed in the primary coil member; and a tertiary coil member (26A,26B) formed in an annular shape, externally disposed around the second small-diameter part (104A, 104B) of the shaft-like body, and being able to be disposed in the secondary coil member (16A,16B). a primary coil member which is formed in an annular shape, through which a high-frequency current is caused to flow, and which is externally disposed around the main body part; a secondary coil member (16A,16B) formed in an annular shape, externally disposed around the first small-diameter part (103A,103B) of the shaft-like body, and being able to be disposed in the primary coil member; and a tertiary coil member (26A,26B) formed in an annular shape, externally disposed around the second small-diameter part (104A, 104B) of the shaft-like body, and being able to be disposed in the secondary coil member (16A,16B).
Belt-type vacuum packaging machine for packaging products contained in preformed bags, comprising: - a base frame which supports a work surface which mainly develops along a longitudinal direction; - a conveyor belt which develops along said longitudinal direction above said work surface and cooperates with advancement means to transfer products contained in preformed bags from a loading area to a packaging area; - a packaging chamber arranged in said packaging area above said work surface and said conveyor belt; - displacement means of said packaging chamber with respect to said work surface and said conveyor belt; - a vacuum chamber configured to receive said products contained in said bags to be vacuum packed, said vacuum chamber being defined between the inside of said packaging chamber and an upper surface of said conveyor belt when a perimetric edge of said packaging chamber is arranged in contact with said work surface and said conveyor belt; - at least one vacuum production system that communicates with said vacuum chamber; - welding means of said preformed bags adapted to be operated after vacuum packaging; - at least one injection system of at least one gaseous substance into each of said preformed bags after said vacuum production system has created the vacuum in each of said preformed bags, said injection system comprising a plurality of injector nozzles that are configured to be connected to said preformed bags and be turned towards the inside of said preformed bags when said preformed bags are arranged on said conveyor belt, characterized in that each of said injector nozzles belongs to said conveyor belt and is fixed in a through hole made in said conveyor belt. - a base frame which supports a work surface which mainly develops along a longitudinal direction; - a conveyor belt which develops along said longitudinal direction above said work surface and cooperates with advancement means to transfer products contained in preformed bags from a loading area to a packaging area; - a packaging chamber arranged in said packaging area above said work surface and said conveyor belt; - displacement means of said packaging chamber with respect to said work surface and said conveyor belt; - a vacuum chamber configured to receive said products contained in said bags to be vacuum packed, said vacuum chamber being defined between the inside of said packaging chamber and an upper surface of said conveyor belt when a perimetric edge of said packaging chamber is arranged in contact with said work surface and said conveyor belt; - at least one vacuum production system that communicates with said vacuum chamber; - welding means of said preformed bags adapted to be operated after vacuum packaging; - at least one injection system of at least one gaseous substance into each of said preformed bags after said vacuum production system has created the vacuum in each of said preformed bags, said injection system comprising a plurality of injector nozzles that are configured to be connected to said preformed bags and be turned towards the inside of said preformed bags when said preformed bags are arranged on said conveyor belt,
PVT method for the process-safe production of single crystals in an apparatus which has a highly heatable growth cell, a process chamber in which the growth cell is located and a heating device surrounding the process chamber for heating the growth cell, wherein a swelling material and a seed being introduced into the growth cell, the process chamber being filled with a process gas and the growth cell being heated, so that the source material is sublimated and resublimated at the seed, characterised in that the process gas consists partly or completely of a reactive gas and in that the process chamber is arranged in a containment vessel, an intermediate chamber between a container wall of the containment vessel and the process chamber being flooded with a protective atmosphere in order to displace the air present therein before the sublimation of the source material is initiated.
A method, performed by a device, of acquiring depth information of an object, the method comprising: generating identification information of the object based on a shape of the object sensed by any one of a plurality of sensors, the identification information including a type of the object; acquiring (S210; S1320) first shape information of at least one view point of the object located at a first point in a common sensing region common to overlapping sensing regions of the plurality of sensors, and first depth information corresponding to 3D information of the object; generating 3D shape information of the object based on the identification information of the object including the type of the object, the first shape information and the first depth information; acquiring (S220; S1340) second shape information of the object at a second point when the object is located at the second point in a region excluding the common sensing region on the respective sensing regions of the plurality of sensors; and comparing the second shape information with the 3D shape information to acquire (S230; S1350) a second depth information of the object at the second point. generating identification information of the object based on a shape of the object sensed by any one of a plurality of sensors, the identification information including a type of the object; acquiring (S210; S1320) first shape information of at least one view point of the object located at a first point in a common sensing region common to overlapping sensing regions of the plurality of sensors, and first depth information corresponding to 3D information of the object; generating 3D shape information of the object based on the identification information of the object including the type of the object, the first shape information and the first depth information; acquiring (S220; S1340) second shape information of the object at a second point when the object is located at the second point in a region excluding the common sensing region on the respective sensing regions of the plurality of sensors; and comparing the second shape information with the 3D shape information to acquire (S230; S1350) a second depth information of the object at the second point.
A railway vehicle comprising a car body, a floor, one or more boarding areas each associated with at least one door, and a floor supporting assembly which is operatively connected to and support said floor, said floor supporting assembly being arranged to reversibly adjust the height of said floor at least at said one or more boarding areas from at least a first level to a second level, characterized in that said floor supporting assembly comprises at least one multifunctional profile which is positioned at a corresponding inner side of the car body and extends, inside the car body, from a side of and above the floor, said multifunctional profile comprising one or more fastening points for attaching therewith one or more corresponding internal functional components of the railway vehicle, and wherein said multifunctional profile is mechanically connected to an associated part of and supports said floor.
A method of processing encoded data bits at a receiver, said encoded data bits transmitted from a transmitter to the receiver over a lossy communication channel established over a network, the method comprising: receiving the encoded data bits over the communication channel, the encoded data bits including redundant data units; decoding the encoded data bits at an error correction decoder, wherein the recovery of lost data is implemented at the error correction decoder using at least one of the redundant data units; determining if at least one data bit is unable to be recovered due to the decoder finding a plurality of candidate bit values for the at least one data bit; receiving information relating to said transmitter; analyzing the plurality of candidate bit values to exclude at least one of the candidate bit values for the at least one data bit using the information relating to said transmitter; and resolving the at least one data bit based on said analysis, the method characterised in that said analyzing comprises decoding the candidate bit values using an application decoder to generate candidate decoded results, and using the information related to said transmitter to exclude invalid or low probability candidate bit values based on the candidate decoded results. receiving the encoded data bits over the communication channel, the encoded data bits including redundant data units; decoding the encoded data bits at an error correction decoder, wherein the recovery of lost data is implemented at the error correction decoder using at least one of the redundant data units; determining if at least one data bit is unable to be recovered due to the decoder finding a plurality of candidate bit values for the at least one data bit; receiving information relating to said transmitter; analyzing the plurality of candidate bit values to exclude at least one of the candidate bit values for the at least one data bit using the information relating to said transmitter; and resolving the at least one data bit based on said analysis, the method characterised in that said analyzing comprises decoding the candidate bit values using an application decoder to generate candidate decoded results, and using the information related to said transmitter to exclude invalid or low probability candidate bit values based on the candidate decoded results.
A compound represented by Chemical Formula 1 below, or a pharmaceutically acceptable salt thereof: in the Chemical Formula 1, X is NH. R 1 is hydrogen, C 1-6 alkyl, C 1-6 heteroalkyl, C 1-6 alkoxy, or halogen, and R 2 and R 3 are each independently hydrogen, C 1-6 alkyl, C 1-6 heteroalkyl, C 1-6 alkoxy, halogen, cyano, nitro, amino, C 1-6 alkoxy-C 1-6 alkyl, C 6-10 aryl, C 6-10 arylamino, C 5-10 heteroaryl, or C 5-10 heteroarylamino, wherein the aryl or heteroaryl is unsubstituted or substituted with at least one selected from the group consisting of C 1-6 alkyl, C 1-6 alkoxy, C 1-6 alkoxy-C 1-6 alkyl, halogen, nitro, cyano, amino, C 1-6 alkylamino, acetylamino, formyl, C 1-6 alkylcarbonyl, morpholinocarbonyl, morpholinyl, piperazinyl, piperidinyl, aminocarbonyl, C 1-6 alkylaminocarbonyl, di(C 1-6 alkyl)aminocarbonyl, C 1-6 alkyl-thio, cyano-C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 dihaloalkyl, C 1-6 alkylsulfonyl, aminosulfonyl, C 1-6 alkylaminosulfonyl, di(C 1-6 alkyl)aminosulfonyl, C 1-6 heteroalkyl, and heteroaryl-C 1-6 alkyl. X is NH. R 1 is hydrogen, C 1-6 alkyl, C 1-6 heteroalkyl, C 1-6 alkoxy, or halogen, and R 2 and R 3 are each independently hydrogen, C 1-6 alkyl, C 1-6 heteroalkyl, C 1-6 alkoxy, halogen, cyano, nitro, amino, C 1-6 alkoxy-C 1-6 alkyl, C 6-10 aryl, C 6-10 arylamino, C 5-10 heteroaryl, or C 5-10 heteroarylamino, wherein the aryl or heteroaryl is unsubstituted or substituted with at least one selected from the group consisting of C 1-6 alkyl, C 1-6 alkoxy, C 1-6 alkoxy-C 1-6 alkyl, halogen, nitro, cyano, amino, C 1-6 alkylamino, acetylamino, formyl, C 1-6 alkylcarbonyl, morpholinocarbonyl, morpholinyl, piperazinyl, piperidinyl, aminocarbonyl, C 1-6 alkylaminocarbonyl, di(C 1-6 alkyl)aminocarbonyl, C 1-6 alkyl-thio, cyano-C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 dihaloalkyl, C 1-6 alkylsulfonyl, aminosulfonyl, C 1-6 alkylaminosulfonyl, di(C 1-6 alkyl)aminosulfonyl, C 1-6 heteroalkyl, and heteroaryl-C 1-6 alkyl.
A portable audio device comprising: a speaker; a telecoil; a voice coil audio signal processor coupled to receive desired audio content, wherein the voice coil audio signal processor comprises an audio signal processing chain that receives the desired audio content as input and includes an equalization block whose frequency response is designed to enhance acoustic coupling between the speaker and an ear of a human user and whose output signal is combined with an anti-noise signal produced by an active noise cancellation block that receives as input a signal from an error microphone; a telecoil audio signal processor coupled to receive the desired audio content, wherein the telecoil audio signal processor comprises an audio signal processing chain that receives as input the desired audio content and not the anti-noise signal, and includes another equalization block whose frequency response is designed to enhance inductive coupling of the telecoil with a hearing aid T-coil; a voice coil amplifier to receive a volume setting and having an input coupled to an output of the voice coil audio signal processor and an output coupled to the speaker; and a telecoil amplifier to receive a telecoil coupling strength setting and having an input coupled to an output of the telecoil audio signal processor and an output coupled to the telecoil, wherein the telecoil produces a primary magnetic field signal that is stronger than a by-product magnetic field signal produced by the speaker. a speaker; a telecoil; a voice coil audio signal processor coupled to receive desired audio content, wherein the voice coil audio signal processor comprises an audio signal processing chain that receives the desired audio content as input and includes an equalization block whose frequency response is designed to enhance acoustic coupling between the speaker and an ear of a human user and whose output signal is combined with an anti-noise signal produced by an active noise cancellation block that receives as input a signal from an error microphone; a telecoil audio signal processor coupled to receive the desired audio content, wherein the telecoil audio signal processor comprises an audio signal processing chain that receives as input the desired audio content and not the anti-noise signal, and includes another equalization block whose frequency response is designed to enhance inductive coupling of the telecoil with a hearing aid T-coil; a voice coil amplifier to receive a volume setting and having an input coupled to an output of the voice coil audio signal processor and an output coupled to the speaker; and a telecoil amplifier to receive a telecoil coupling strength setting and having an input coupled to an output of the telecoil audio signal processor and an output coupled to the telecoil, wherein the telecoil produces a primary magnetic field signal that is stronger than a by-product magnetic field signal produced by the speaker.
A method for determining a likely effect of a treatment to improve male fertility, the method comprising • determining the level of AMH and/or inhibin B in a biological sample from a male subject; • comparing said determined AMH and/or inhibin B level to a corresponding reference level; and • determining that said subject will ∘ likely benefit from treatment with an antagonist or inhibitor of RANKL, if said level is equal to or higher than said reference level; or ∘ likely not benefit from treatment with an antagonist or inhibitor of RANKL, if said level is lower than said reference level. • determining the level of AMH and/or inhibin B in a biological sample from a male subject; • comparing said determined AMH and/or inhibin B level to a corresponding reference level; and • determining that said subject will ∘ likely benefit from treatment with an antagonist or inhibitor of RANKL, if said level is equal to or higher than said reference level; or ∘ likely not benefit from treatment with an antagonist or inhibitor of RANKL, if said level is lower than said reference level. ∘ likely benefit from treatment with an antagonist or inhibitor of RANKL, if said level is equal to or higher than said reference level; or ∘ likely not benefit from treatment with an antagonist or inhibitor of RANKL, if said level is lower than said reference level.
A method of fabricating an airfoil, comprising: making a pair of cured composite skins; making at least one spar, including assembling uncured spar chords and at least one cured composite spar web; assembling the cured skins to the spar; and curing the spar chords. making a pair of cured composite skins; making at least one spar, including assembling uncured spar chords and at least one cured composite spar web; assembling the cured skins to the spar; and curing the spar chords.
A lubrication system for a gas turbine engine, said lubrication system comprising: a main lubricant tank configured to hold lubricant that is communicated from said main lubricant tank to a component along a first communication path; an auxiliary lubricant tank configured to hold lubricant that is communicated from said component to said auxiliary lubricant tank along a second communication path, said first communication path separate from said second communication path; an auxiliary lubricant tank discharge passageway at least partially within said auxiliary lubricant tank, said auxiliary lubricant tank discharge passageway includes an opening to permit lubricant transfer between said auxiliary lubricant tank and said auxiliary lubricant tank discharge passageway; and a segmented anti-back flow structure mounted adjacent to said auxiliary lubricant tank and said lubricant tank discharge passageway, wherein said segmented anti-back flow structure includes a multiple of walls (144A-144n), at least one of which includes a tube (146A-146n) which extends therethrough. a main lubricant tank configured to hold lubricant that is communicated from said main lubricant tank to a component along a first communication path; an auxiliary lubricant tank configured to hold lubricant that is communicated from said component to said auxiliary lubricant tank along a second communication path, said first communication path separate from said second communication path; an auxiliary lubricant tank discharge passageway at least partially within said auxiliary lubricant tank, said auxiliary lubricant tank discharge passageway includes an opening to permit lubricant transfer between said auxiliary lubricant tank and said auxiliary lubricant tank discharge passageway; and a segmented anti-back flow structure mounted adjacent to said auxiliary lubricant tank and said lubricant tank discharge passageway, wherein said segmented anti-back flow structure includes a multiple of walls (144A-144n), at least one of which includes a tube (146A-146n) which extends therethrough.