mhurhangee/ep-ind-claims huggingface dataset:
A transfer chamber for transferring a transferred object to or from a processing device by using a transfer robot disposed thereinside, comprising: a circulation path formed inside of the transfer chamber to circulate gas; a filter provided in a midstream of the circulation path; a humidity detection means (HG1, HG2) configured to detect internal humidity; and a gas supply means configured to supply gas to the inside of the transfer chamber; characterized by further comprising a moisture supply means configured to supply moisture content to the inside of the transfer chamber, wherein the moisture supply means is made to operate in accordance with a humidity detection value by the humidity detection means (HG1, HG2); and the filter is a chemical filter configured to remove chemical components using a hydrolysis reaction. a circulation path formed inside of the transfer chamber to circulate gas; a filter provided in a midstream of the circulation path; a humidity detection means (HG1, HG2) configured to detect internal humidity; and a gas supply means configured to supply gas to the inside of the transfer chamber; characterized by further comprising a moisture supply means configured to supply moisture content to the inside of the transfer chamber, wherein the moisture supply means is made to operate in accordance with a humidity detection value by the humidity detection means (HG1, HG2); and the filter is a chemical filter configured to remove chemical components using a hydrolysis reaction.
A method for diagnosing weft insertion in an air-jet loom, wherein the air jet loom includes a main nozzle and a sub-nozzle, which insert a weft yarn in a weft yarn flight path, a balloon sensor, which detects unwinding of the weft yarn from a weft measuring and storing device, an end sensor located on an opposite end of the weft yarn flight path from the main nozzle and outside of a weaving width, and an in-weaving width sensor located at a position in the weft yarn flight path farther from the main nozzle than a center of the weaving width and within the weaving width, characterized in that if a count of unwinding detected by the balloon sensor is normal, and the weft yarn is detected by the in-weaving width sensor but not by the end sensor, a weft detection timing of the in-weaving width sensor is compared with a previously set threshold value (ISx1, ISx2) of the weft detection timing of the in-weaving width sensor to estimate the location of a looped weft failure that is a weft insertion failure that has occurred. the air jet loom includes a main nozzle and a sub-nozzle, which insert a weft yarn in a weft yarn flight path, a balloon sensor, which detects unwinding of the weft yarn from a weft measuring and storing device, an end sensor located on an opposite end of the weft yarn flight path from the main nozzle and outside of a weaving width, and an in-weaving width sensor located at a position in the weft yarn flight path farther from the main nozzle than a center of the weaving width and within the weaving width, a main nozzle and a sub-nozzle, which insert a weft yarn in a weft yarn flight path, a balloon sensor, which detects unwinding of the weft yarn from a weft measuring and storing device, an end sensor located on an opposite end of the weft yarn flight path from the main nozzle and outside of a weaving width, and an in-weaving width sensor located at a position in the weft yarn flight path farther from the main nozzle than a center of the weaving width and within the weaving width, characterized in that if a count of unwinding detected by the balloon sensor is normal, and the weft yarn is detected by the in-weaving width sensor but not by the end sensor, a weft detection timing of the in-weaving width sensor is compared with a previously set threshold value (ISx1, ISx2) of the weft detection timing of the in-weaving width sensor to estimate the location of a looped weft failure that is a weft insertion failure that has occurred.
A combination for use in the treatment of diabetes mellitus type 2, the combination comprising (a) desPro 36 Exendin-4 -Lys 6 -NH 2 or/and a pharmaceutically acceptable salt thereof, (b) metformin or/and a pharmaceutically acceptable salt thereof, wherein the subject to be treated is obese and has a body mass index of at least 30 kg/m 2 and has an age in the range of 18 to 50 years, and wherein the diabetes mellitus type 2 is not adequately controlled with metformin alone, and wherein desPro 36 Exendin-4 -Lys 6 -NH 2 or/and the pharmaceutically acceptable salt thereof is prepared for administration by one injection per day. (a) desPro 36 Exendin-4 -Lys 6 -NH 2 or/and a pharmaceutically acceptable salt thereof, (b) metformin or/and a pharmaceutically acceptable salt thereof, wherein the subject to be treated is obese and has a body mass index of at least 30 kg/m 2 and has an age in the range of 18 to 50 years, and wherein the diabetes mellitus type 2 is not adequately controlled with metformin alone, and wherein desPro 36 Exendin-4 -Lys 6 -NH 2 or/and the pharmaceutically acceptable salt thereof is prepared for administration by one injection per day.
A method of configuring an obstacle assembly for water flowing in a river channel comprising: providing a first obstacle (402, 700) comprising: a first hollow structural box; and a first connector (526, 804) spanning through said first hollow structural box; providing a first strut channel frame (528, 718) comprising a slotted face and an oppositely disposed web (1816, 1828, 1842) separated by a first leg (1818, 1830, 1844) and a second leg (1820, 1832, 1846), said first strut channel frame web (1816, 1828, 1842) adjoining said first hollow structural box, attaching said first obstacle (402, 700) to said river channel with said first connector (526, 804); wherein said attaching said first obstacle (402, 700) to said river channel with said first connector (526, 804) compresses said first hollow structural box between said river channel and said first strut channel frame (528; 718) providing a second obstacle (404, 700) comprising: a second hollow structural box; and a second connector (526, 806) spanning through said second hollow structural box; and attaching said second obstacle (404, 700) to said first obstacle (402, 700) with said second connector (526, 806) thereby configuring said obstacle assembly for said water flowing in said river channel. providing a first obstacle (402, 700) comprising: a first hollow structural box; and a first connector (526, 804) spanning through said first hollow structural box; a first hollow structural box; and a first connector (526, 804) spanning through said first hollow structural box; providing a first strut channel frame (528, 718) comprising a slotted face and an oppositely disposed web (1816, 1828, 1842) separated by a first leg (1818, 1830, 1844) and a second leg (1820, 1832, 1846), said first strut channel frame web (1816, 1828, 1842) adjoining said first hollow structural box, attaching said first obstacle (402, 700) to said river channel with said first connector (526, 804); wherein said attaching said first obstacle (402, 700) to said river channel with said first connector (526, 804) compresses said first hollow structural box between said river channel and said first strut channel frame (528; 718) providing a second obstacle (404, 700) comprising: a second hollow structural box; and a second connector (526, 806) spanning through said second hollow structural box; and attaching said second obstacle (404, 700) to said first obstacle (402, 700) with said second connector (526, 806) thereby configuring said obstacle assembly for said water flowing in said river channel. a second hollow structural box; and a second connector (526, 806) spanning through said second hollow structural box; and attaching said second obstacle (404, 700) to said first obstacle (402, 700) with said second connector (526, 806) thereby configuring said obstacle assembly for said water flowing in said river channel.
Tilting vehicle comprising a rear frame section having two drive wheels (55,56) and a front frame section having at least one front wheel, connected to the rear frame section such as to be tiltable about a tilt axis that extends in a length direction, the front frame section carrying a driver seat, the rear frame section comprising a propulsion drive for rotating the drive wheels (55,56) and a tilting drive for tilting the front section about the tilting axis, the front wheel being tiltable about a steering axis that extends transversely to the tilt axis, the vehicle further comprises a locking mechanism for locking the front frame section in a non-tiltable position to the rear frame section, and a controller being with an input arranged for receiving a lock-command signal and being with an output connected to the locking mechanism for generating a locking signal for actuating the locking mechanism, wherein the lock-command signal comprises a user-generated signal and/or a status signal provided by a sensor characterized in that the tilting drive comprises an electric motor situated at a predetermined distance from the tilt axis with a gear, and a tilting member having a toothed surface engaging with the gear such that the tilting member can be displaced transversely to the tilting axis by rotation of the gear, whereby the tilting drive and the tilting member are connected to the respective front and rear frame sections (10, 50), and wherein the locking element is comprised in the tilting drive.
A method of controlling gas turbine operation in response to lean blowout of a combustion can (14,15), wherein the gas turbine comprises at least two combustion cans (14,15), the method comprising: sensing (100,102) that a first combustion can is extinguished during a full load operation of the gas turbine; adjusting a fuel ratio between a first fuel nozzle of a plurality of nozzles associated with the first combustion can and a second fuel nozzle of a plurality of nozzles associated with a second combustion can; delivering a richer fuel mixture to the second fuel nozzle, wherein the second fuel nozzle is a fuel nozzle nearest to a cross-fire tube; generating a cross-fire from the second combustion can to the first combustion can via the cross-fire tube; detecting a recovery of the turbine load; and adjusting the fuel ratio to the normal balanced fuel distribution between the respective fuel nozzles. sensing (100,102) that a first combustion can is extinguished during a full load operation of the gas turbine; adjusting a fuel ratio between a first fuel nozzle of a plurality of nozzles associated with the first combustion can and a second fuel nozzle of a plurality of nozzles associated with a second combustion can; delivering a richer fuel mixture to the second fuel nozzle, wherein the second fuel nozzle is a fuel nozzle nearest to a cross-fire tube; generating a cross-fire from the second combustion can to the first combustion can via the cross-fire tube; detecting a recovery of the turbine load; and adjusting the fuel ratio to the normal balanced fuel distribution between the respective fuel nozzles.
Electrical connection assembly for a circulator pump driven by an electric motor, comprising a connector housing formed by a connector lid removably associated with a connector support, said connector housing being coupled to the circulator, whereby said lid comprises at least one connection hole inside which an external connector is engaged by means of a bayonet coupling and is capable of snap-rotating assuming a predetermined number of fixed positions depending on a desired orientation; characterized by coupling means (41, 42) for engagement with the hole being provided in the external connector in order to cooperate with locking means arranged within the support so as to lock the external connector in one of said fixed positions, when the lid is associated with the support.
Solenoid valve, in particular for controlling a brake pressure of a wheel brake of a motor vehicle, comprising an axially moveably mounted armature, wherein one end of the armature is assigned to a pole core and a valve sealing element is arranged at another end of the armature, wherein the armature has an axial passage, wherein a closure element is retained in a selectable position in the axial passage by force fit and/or form fit, and a plunger is axially moveably mounted in the axial passage and provides a connection to the pole core in an installation position, wherein a compression spring is positioned in the axial passage, wherein the compression spring is held under preload between the plunger and the closure element, characterized in that the closure element is designed as a three-dimensionally convex body.
A power tool which includes a housing mounted to be moveable with respect to, and spaced from, a base of the tool, said housing including a motor to rotate a shaft which includes, at its free end, a tool holder for a cutting tool, said tool holder located at or adjacent to the base and the base has an aperture through which a cutting tool attached to the tool holder can pass to perform work on a workpiece, said housing connected to the base by one or more support assemblies (10,12), and a sleeve is provided on the base and defines therein an area in which the said cutting tool, tool holder and said aperture in the base are located when performing work on the workpiece, said sleeve including a side wall extending from the base towards the housing and guide means are provided within the sleeve to encourage dust and debris which has collected in the area to move in a particular direction towards an exit port via which the dust and debris can be removed from the tool, said exit port connected to a dust and debris extraction connector which includes a collar assembly suitable for the selective location therewith of a channel and characterised in that said connector is movable between first and second positions with respect to the exit port where the connector is in the first position when the tool is in a first configuration of use with the tool located to be operated on an upper side of a workbench and the connector is in the second position when the tool is located to be operated on the underside of a workbench.
Machine for working at least one panel, in wood, plastic, metal, fiberglass, glass and the like, comprising a working unit of said at least one panel, having a thickness (d), receiving on entry said at least one panel, and providing on exit a panel (P') comprising a plurality of portions (P' 1, P' 2,..., P' n), wherein said panel has been divided according to a predetermined pieces pattern; a logic control unit, operationally connected with said working unit and provided with a program for controlling said working unit, wherein said working unit comprises at least one first saw having a radius ( r), characterized in that said logic control unit is configured for receiving the following input parameters: said predetermined pieces pattern, said thickness (d) of said panel, said radius ( r) of said first saw; and calculating a cuttings pattern in order to obtain waste portions and reusable portions in function of said input parameters. a working unit of said at least one panel, having a thickness (d), receiving on entry said at least one panel, and providing on exit a panel (P') comprising a plurality of portions (P' 1, P' 2,..., P' n), wherein said panel has been divided according to a predetermined pieces pattern; a logic control unit, operationally connected with said working unit and provided with a program for controlling said working unit, wherein said working unit comprises at least one first saw having a radius ( r), characterized in that said logic control unit is configured for receiving the following input parameters: said predetermined pieces pattern, said thickness (d) of said panel, said radius ( r) of said first saw; and calculating a cuttings pattern in order to obtain waste portions and reusable portions in function of said input parameters. said predetermined pieces pattern, said thickness (d) of said panel, said radius ( r) of said first saw; and calculating a cuttings pattern in order to obtain waste portions and reusable portions in function of said input parameters.
HMI system with at least one mobile control and monitoring device for controlling automation components of a technical plant in real time, with at least one transponder device (108, 110, 112) at different reference points of the technical plant, with - transmit and receive means in a localisation module of a mobile control and monitoring device for transmitting radio signals and receiving radio signals modulated and reflected by the at least one transponder device (108, 110, 112), - means for automatic localisation of the mobile control and monitoring device in relation to the position of the at least one transponder device (108, 110, 112) by means of the radio signals modulated and reflected as radar signals sent and received from the mobile control and monitoring device, wherein the transmit and receive means in the localisation module of the mobile control and monitoring device is embodied for simultaneous transmission and receipt of radio signals, wherein the transmit and receive means in the localisation module of the control and monitoring device is integrated into a single antenna module, wherein the antenna module functioning as a transmit and receive module is embodied as a dual-polarised dual-port antenna and the mobile control and monitoring device is embodied for sending radio signals of a first polarisation and for receiving radio signals of a second polarisation, and wherein a data transmission between the automation component and the individual transponder devices (108, 110, 112) is not required for localising the respective mobile control and monitoring device. - transmit and receive means in a localisation module of a mobile control and monitoring device for transmitting radio signals and receiving radio signals modulated and reflected by the at least one transponder device (108, 110, 112), - means for automatic localisation of the mobile control and monitoring device in relation to the position of the at least one transponder device (108, 110, 112) by means of the radio signals modulated and reflected as radar signals sent and received from the mobile control and monitoring device, wherein the transmit and receive means in the localisation module of the mobile control and monitoring device is embodied for simultaneous transmission and receipt of radio signals, wherein the transmit and receive means in the localisation module of the control and monitoring device is integrated into a single antenna module, wherein the antenna module functioning as a transmit and receive module is embodied as a dual-polarised dual-port antenna and the mobile control and monitoring device is embodied for sending radio signals of a first polarisation and for receiving radio signals of a second polarisation, and wherein a data transmission between the automation component and the individual transponder devices (108, 110, 112) is not required for localising the respective mobile control and monitoring device.
A snap-acting hinge with damped closure and opening angle of more than 90°, which comprises a first articulated quadrilateral and a second articulated quadrilateral, which have a first lever and a second lever in common and are provided with respective base elements constituted by a plate for coupling to a fixed element and by a plate for fixing to a movable element, the hinge being movable between an open configuration and a closed configuration, in which the fixing plate has different arrangements with respect to the coupling plate which are angularly spaced apart by an angle of more than 90°, first elastic means for holding the open configuration which are associated with said first quadrilateral, second elastic means for holding the closed configuration which are associated with said second quadrilateral, and damping means which are interposed between said first lever and said fixing plate for fixing to the movable element and act in the transition from the open configuration to the closed configuration, and at least one bracket for connecting said damping means to said fixing plate which is substantially L-shaped and is constituted by a first portion and a second portion which are mutually connected, wherein the first portion is hinged to the fixing plate about a first pivot, the connecting region between said portions being hinged to the second lever about a second pivot and the second portion being hinged to said damping means about a third pivot. a first articulated quadrilateral and a second articulated quadrilateral, which have a first lever and a second lever in common and are provided with respective base elements constituted by a plate for coupling to a fixed element and by a plate for fixing to a movable element, the hinge being movable between an open configuration and a closed configuration, in which the fixing plate has different arrangements with respect to the coupling plate which are angularly spaced apart by an angle of more than 90°, first elastic means for holding the open configuration which are associated with said first quadrilateral, second elastic means for holding the closed configuration which are associated with said second quadrilateral, and damping means which are interposed between said first lever and said fixing plate for fixing to the movable element and act in the transition from the open configuration to the closed configuration, and at least one bracket for connecting said damping means to said fixing plate which is substantially L-shaped and is constituted by a first portion and a second portion which are mutually connected, wherein the first portion is hinged to the fixing plate about a first pivot, the connecting region between said portions being hinged to the second lever about a second pivot and the second portion being hinged to said damping means about a third pivot.
A spin-rectifying device comprising: a one-dimensional channel formed from a semiconductor layer located on a substrate, electrons traveling through the one-dimensional channel, the one-dimensional channel being a quantum point contact and being formed at a portion of the layer laterally narrowed from both sides with respect to the direction in which the electrons are traveling; side gates provided on both sides of the one-dimensional channel at the narrowed portion; a further gate electrode located above the one-dimensional channel configured to apply an electric field to the electrons travelling through the one-dimensional channel generating a spin orbit interaction to the electrons traveling through the one-dimensional channel resulting in an effective magnetic field (Bα) being in a direction intersectional to a direction in which the electrons are traveling; and an external magnetic field generating unit configured to generate an external magnetic field (Bex) in the one-dimensional channel at the narrowed portion in a direction perpendicular to the movement of the electrons and in the plane of the substrate. a one-dimensional channel formed from a semiconductor layer located on a substrate, electrons traveling through the one-dimensional channel, the one-dimensional channel being a quantum point contact and being formed at a portion of the layer laterally narrowed from both sides with respect to the direction in which the electrons are traveling; side gates provided on both sides of the one-dimensional channel at the narrowed portion; a further gate electrode located above the one-dimensional channel configured to apply an electric field to the electrons travelling through the one-dimensional channel generating a spin orbit interaction to the electrons traveling through the one-dimensional channel resulting in an effective magnetic field (Bα) being in a direction intersectional to a direction in which the electrons are traveling; and an external magnetic field generating unit configured to generate an external magnetic field (Bex) in the one-dimensional channel at the narrowed portion in a direction perpendicular to the movement of the electrons and in the plane of the substrate.