mhurhangee/ep-ind-claims huggingface dataset:
Method for destacking trays, wherein the trays comprise a first side with mostly concave receptacles, and a second side with mostly convex protuberances, the method comprising the following steps: - Loading, in receiving means, a plurality of stacked trays, such that said trays are mostly in a horizontal position; - Lifting the stacked trays with a lifting platform up to separating means having one or more suction cups, said lifting platform comprising the receiving means arranged to receive the stack of trays; - Positioning the one or more suction cups on the second side with convex protuberances of the upper tray of the stack; - Sucking to fix the suction cups to the tray; - Separating the upper tray from the stack; - Moving the separated tray up to a specified delivery place; and - Flipping over the trays before leaving, so that the first side with concave receptacles is facing upwards and therefore makes it possible to directly deposit the objects to be carried on it. - Loading, in receiving means, a plurality of stacked trays, such that said trays are mostly in a horizontal position; - Lifting the stacked trays with a lifting platform up to separating means having one or more suction cups, said lifting platform comprising the receiving means arranged to receive the stack of trays; - Positioning the one or more suction cups on the second side with convex protuberances of the upper tray of the stack; - Sucking to fix the suction cups to the tray; - Separating the upper tray from the stack; - Moving the separated tray up to a specified delivery place; and - Flipping over the trays before leaving, so that the first side with concave receptacles is facing upwards and therefore makes it possible to directly deposit the objects to be carried on it.
A method for wireless communication, comprising: receiving, by a user equipment, resource partitioning information, RPI, indicating at least a first set of resources, the first set of resources comprising a first set of subframes assigned to a first cell that are protected by restricting transmissions on the first set of subframes by a second cell; periodically reporting channel state information, CSI, for the first set of resources; and periodically reporting CSI for a second set of resources; and receiving configuration information indicating when to report the CSI for the first and second sets of resources, wherein the CSI for the first and second sets of resources comprises a channel quality indicator, CQI, reported with a first periodicity and a rank indicator, RI, reported with a second periodicity. receiving, by a user equipment, resource partitioning information, RPI, indicating at least a first set of resources, the first set of resources comprising a first set of subframes assigned to a first cell that are protected by restricting transmissions on the first set of subframes by a second cell; periodically reporting channel state information, CSI, for the first set of resources; and periodically reporting CSI for a second set of resources; and receiving configuration information indicating when to report the CSI for the first and second sets of resources, wherein the CSI for the first and second sets of resources comprises a channel quality indicator, CQI, reported with a first periodicity and a rank indicator, RI, reported with a second periodicity.
A gas turbine component, the gas turbine component being either a transition duct (28, 60) or a combustion chamber, the gas turbine component having a double-wall construction comprising an inner wall and an external wall, the gas turbine component including a cooling apparatus that redirects a coolant fluid, the cooling apparatus comprising: a first scoop over a first coolant inlet hole in said external wall of said gas turbine component; the first scoop being characterised in that it comprises a leading edge with a central tongue that overhangs the hole, and a curved undercut on each side of the tongue between the tongue and an attachment base of the scoop; wherein the base is attached to an outer surface of said external wall, and partly surrounds the first hole, wherein the first scoop directs impingement jets of the coolant fluid through the first hole against said inner wall of said gas turbine component. a first scoop over a first coolant inlet hole in said external wall of said gas turbine component; the first scoop being characterised in that it comprises a leading edge with a central tongue that overhangs the hole, and a curved undercut on each side of the tongue between the tongue and an attachment base of the scoop; wherein the base is attached to an outer surface of said external wall, and partly surrounds the first hole, wherein the first scoop directs impingement jets of the coolant fluid through the first hole against said inner wall of said gas turbine component.
A conveyance system comprising: a track that is constructed across a plurality of areas (A1 - A5); a first conveyance carriage that is configured to travel along the track; a second conveyance carriage that is configured to travel along the track and has a width and a height at least one of which is larger than that of the first conveyance carriage; a sensor that is provided to the second conveyance carriage, arranged at a position that does not overlap the first conveyance carriage when viewed in a traveling direction, and that is configured to detect an obstacle in front; and a member to be detected that is arranged, in an entry section into a restricted area of the plurality of areas (A1 - A5), where only the first conveyance carriage is allowed to enter, at a position where the first conveyance carriage is allowed to enter the restricted area (Al), the position being detectable by the sensor provided to the second conveyance carriage, wherein the track comprises a main rail and a branching/merging rail, wherein the member to be detected is arranged at a position of the branching/merging rail where, even when the second conveyance carriage enters the branching/merging rail from the main rail and stops in the entry section, the second conveyance carriage does not block the first conveyance carriage traveling on the main rail. a track that is constructed across a plurality of areas (A1 - A5); a first conveyance carriage that is configured to travel along the track; a second conveyance carriage that is configured to travel along the track and has a width and a height at least one of which is larger than that of the first conveyance carriage; a sensor that is provided to the second conveyance carriage, arranged at a position that does not overlap the first conveyance carriage when viewed in a traveling direction, and that is configured to detect an obstacle in front; and a member to be detected that is arranged, in an entry section into a restricted area of the plurality of areas (A1 - A5), where only the first conveyance carriage is allowed to enter, at a position where the first conveyance carriage is allowed to enter the restricted area (Al), the position being detectable by the sensor provided to the second conveyance carriage, wherein the track comprises a main rail and a branching/merging rail, wherein the member to be detected is arranged at a position of the branching/merging rail where, even when the second conveyance carriage enters the branching/merging rail from the main rail and stops in the entry section, the second conveyance carriage does not block the first conveyance carriage traveling on the main rail.
A method for controlling a magnetron sputter deposition process involving reaction between reactive gas species and a material included in a target acting as a cathode, said method comprising the steps of: selecting a control process parameter for a given target material and reactive process gas; establishing an operation regime for a reactive sputter deposition process for a given nominal target power level; and performing a reactive deposition of dielectric stoichiometric films in a transition region between a metallic mode and a covered mode through a controlled pulsed reactive gas flow rate into the vacuum chamber; sensing time-dependent values of said control process parameter and providing a signal to mass flow controllers (28, 30) to adjust the pulsed reactive gas flow rate into the vacuum chamber on the basis of the sensed time-dependent values. selecting a control process parameter for a given target material and reactive process gas; establishing an operation regime for a reactive sputter deposition process for a given nominal target power level; and performing a reactive deposition of dielectric stoichiometric films in a transition region between a metallic mode and a covered mode through a controlled pulsed reactive gas flow rate into the vacuum chamber; sensing time-dependent values of said control process parameter and providing a signal to mass flow controllers (28, 30) to adjust the pulsed reactive gas flow rate into the vacuum chamber on the basis of the sensed time-dependent values.
Method for securing gates with a light grid which emits a plurality of protective beams (S1 to Sn) in protective beam positions (P1 to Pn), wherein the light grid is arranged so that its monitoring area at least partially coincides with a movement plane of the gate to be secured, wherein the protective beams (S1 to Sn) of the light grid are arranged transversely to a closing movement direction of the gate to be secured, wherein each of the protective beams (S1 to Sn) forms an active state, in which the switching state of this protective beam (S1 to Sn) is evaluated for an object detection, and wherein each of the protective beams (S1 to Sn) forms a passive state, in which the switching state of this protective beam (S1 to Sn) is detected but not evaluated for the object detection, characterised in that each protective beam position (P1 to Pn) emits in addition to the protective beam (S1 to Sn) a fore-running ancillary protective beam (V1 to Vn) and an after-running ancillary protective beam (N1 to Nn) and the protective beam position in case of subsequent feasibility condition is set passively if namely a preceding protective beam position (P - 1) is passively set, and the protective beam position is switched for the first time with its protective beam and at least the after-running protective beam of the protective beam position and the fore-running ancillary protective beam (V + 1), directly following in the closing movement, of the subsequent protective beam position (P + 1) switch in a subsequent time interval adapted to the closing movement of the gate, and the closing movement of the gate stops if an object is detected by at least one actively set protective beam and / or at least one actively set ancillary protective beam.
A method performed by a first user equipment, UE, for providing a secondary cell to one or more user equipments, UEs, in a base station-user equipment dual connectivity, BUDC, group, the BUDC group comprising the first UE and the one or more UEs, the method comprising: receiving, at the first UE and from a base station, configuration information to serve as a secondary cell-user equipment, SC-UE, that provides the secondary cell for the BUDC group, the base station providing a primary connection within a primary cell for the one or more UEs of the BUDC group; providing, to a second UE connected to the base station, access to the secondary cell for a secondary connection by admitting the second UE to the BUDC group; scheduling, for the second UE, resources of an air interface for communication in the secondary cell provided by the first UE for the one or more UEs of the BUDC group; and communicating data with the second UE of the BUDC group using the resources of the air interface that are scheduled for communication in the secondary cell. receiving, at the first UE and from a base station, configuration information to serve as a secondary cell-user equipment, SC-UE, that provides the secondary cell for the BUDC group, the base station providing a primary connection within a primary cell for the one or more UEs of the BUDC group; providing, to a second UE connected to the base station, access to the secondary cell for a secondary connection by admitting the second UE to the BUDC group; scheduling, for the second UE, resources of an air interface for communication in the secondary cell provided by the first UE for the one or more UEs of the BUDC group; and communicating data with the second UE of the BUDC group using the resources of the air interface that are scheduled for communication in the secondary cell.
The use of an assembly opening of a rotor blade, which serves for receiving a hoist when assembling the rotor blade on a wind power installation, as an opening for receiving a lighting element for illuminating a rotor blade, in particular during the operation of the wind power installation, wherein the lighting element comprises - a lighting portion and a connection portion, - wherein the connection portion is arranged and embodied to be connected in an interior of the rotor blade, and - the lighting portion is arranged and embodied to protrude from the opening of the rotor blade, and - the lighting portion is arranged and embodied to irradiate the rotor blade from which it protrudes. - a lighting portion and a connection portion, - wherein the connection portion is arranged and embodied to be connected in an interior of the rotor blade, and - the lighting portion is arranged and embodied to protrude from the opening of the rotor blade, and - the lighting portion is arranged and embodied to irradiate the rotor blade from which it protrudes.
A catheter liner comprising: an inner polymer layer disposed adjacent to an outer polymer layer and defining an internal lumen; wherein the inner polymer layer includes a blend of two or more polymers; wherein the blend of two or more polymers includes PTFE and one or more copolymers, and wherein the one or more copolymer includes copolymers with 10% to 40% TFE monomers. an inner polymer layer disposed adjacent to an outer polymer layer and defining an internal lumen; wherein the inner polymer layer includes a blend of two or more polymers; wherein the blend of two or more polymers includes PTFE and one or more copolymers, and wherein the one or more copolymer includes copolymers with 10% to 40% TFE monomers.
A circuit breaker comprising: an enclosure having an inner region; a contact housed within the inner region of the enclosure, a first side of the contact electrically coupled to a first electrical conductor of the circuit breaker, a second side of the contact electrically coupled to a second electrical conductor of the circuit breaker; and a capacitor assembly housed within the inner region of the enclosure and connected in parallel across the contact, the capacitor assembly including a transient recovery voltage capacitor, characterised in that the capacitor assembly further includes an insulator tube, a first end cap and a second end cap, the first and second end caps (70, 50) comprising an electrically conductive material and are attached to opposing ends of the insulator tube, the transient recovery voltage capacitor being housed within the insulator tube, and the capacitor assembly further includes a first mounting bracket and a second mounting bracket, the first and second mounting brackets (78a, 78b) comprising an electrically conductive material, the first mounting bracket being attached to the first end cap and electrically coupled to a first side of the contact, the second mounting bracket being attached to the second end cap and electrically coupled to a second side of the contact. an enclosure having an inner region; a contact housed within the inner region of the enclosure, a first side of the contact electrically coupled to a first electrical conductor of the circuit breaker, a second side of the contact electrically coupled to a second electrical conductor of the circuit breaker; and a capacitor assembly housed within the inner region of the enclosure and connected in parallel across the contact, the capacitor assembly including a transient recovery voltage capacitor, characterised in that the capacitor assembly further includes an insulator tube, a first end cap and a second end cap, the first and second end caps (70, 50) comprising an electrically conductive material and are attached to opposing ends of the insulator tube, the transient recovery voltage capacitor being housed within the insulator tube, and the capacitor assembly further includes a first mounting bracket and a second mounting bracket, the first and second mounting brackets (78a, 78b) comprising an electrically conductive material, the first mounting bracket being attached to the first end cap and electrically coupled to a first side of the contact, the second mounting bracket being attached to the second end cap and electrically coupled to a second side of the contact.
Device for braking of reversing in a parallel shaft gearbox including a reversing shaft mounted in a gearbox housing and carrying an intermediate reversing gear which continually meshes with a primary reversing gear and which can move between a reverse gear disengaged position and a reverse gear engaged position under the control of a forward dog actuated by a shift finger which is rotated with a selector shaft to select a line of gears and moved in translation in a key locked on the selector shaft to engage a forward or reverse gear on a selected line of gears, characterized in that the finger moves a cotter mounted inside the key, radially engaged in a forward dog which it drives over a first part of the reverse gear engagement travel, and radially retracted towards the interior of the key over a second part of the reverse gear engagement travel, in which it escapes from the forward dog.
A diagnostic apparatus, comprising: an ultra-wideband, unidirectional antenna comprising an array of antenna elements, which is configured to direct radio-frequency waves into a living body and to generate signals responsively to the waves that are scattered from within the body; and a processing circuitry, which is configured to process the signals so as to locate a feature in a blood vessel in the body; wherein the front surface of the antenna comprises a printed circuit board configured to be brought into contact with said living body; and wherein each antenna element of the array includes a planar element at the front surface thereof, the planar element comprising a conductive radiator printed on the printed circuit board, and each antenna element further including a conductive cavity behind the planar element, the cavity being configured to reduce antenna reverberations from back-lobe scattering. an ultra-wideband, unidirectional antenna comprising an array of antenna elements, which is configured to direct radio-frequency waves into a living body and to generate signals responsively to the waves that are scattered from within the body; and a processing circuitry, which is configured to process the signals so as to locate a feature in a blood vessel in the body; wherein the front surface of the antenna comprises a printed circuit board configured to be brought into contact with said living body; and wherein each antenna element of the array includes a planar element at the front surface thereof, the planar element comprising a conductive radiator printed on the printed circuit board, and each antenna element further including a conductive cavity behind the planar element, the cavity being configured to reduce antenna reverberations from back-lobe scattering.
A method of manufacturing an oxide semiconductor device, comprising: forming a gate electrode on a substrate; forming a gate insulation layer on the substrate to cover the gate electrode; forming an electrode layer on the gate insulation layer; forming a mask pattern on the electrode layer; forming a source electrode and a drain electrode on the gate insulation layer by etching the electrode layer using the mask pattern; forming a preliminary recess structure on the gate insulation layer by performing a plasma treatment on the gate insulation layer between the source electrode and the drain electrode; forming a recess structure on the gate insulation layer by performing a cleaning treatment on the gate insulation layer having the preliminary recess structure, wherein the cleaning treatment is performed by applying a solution for removing a metal compound; then removing the mask pattern from the source electrode and the drain electrode; and forming an active pattern using an oxide semiconductor on the gate insulation layer, the source electrode and the drain electrode. forming a gate electrode on a substrate; forming a gate insulation layer on the substrate to cover the gate electrode; forming an electrode layer on the gate insulation layer; forming a mask pattern on the electrode layer; forming a source electrode and a drain electrode on the gate insulation layer by etching the electrode layer using the mask pattern; forming a preliminary recess structure on the gate insulation layer by performing a plasma treatment on the gate insulation layer between the source electrode and the drain electrode; forming a recess structure on the gate insulation layer by performing a cleaning treatment on the gate insulation layer having the preliminary recess structure, wherein the cleaning treatment is performed by applying a solution for removing a metal compound; then removing the mask pattern from the source electrode and the drain electrode; and forming an active pattern using an oxide semiconductor on the gate insulation layer, the source electrode and the drain electrode.
Track roller device for inserting into the frame profile of a sliding partition section, with a housing which holds at least one track roller, with means of adjusting the height of the track roller, where the means of adjusting the height of the track roller comprise a roller retainer mounted to pivot in the housing, which roller retainer can be pivoted via a movable adjusting element within the housing, where the roller retainer has an axle seat for a roller axle which is mounted in two legs of the roller retainer arranged opposite one another, characterised in that a spring arm is also mounted on the axle seat in such a way that it projects into the axle seat, and which is formed in such a way that it deflects when the roller axle is inserted into the axle seat, and then springs back to its original position when the roller axle has reached its final mounting position, thereby holding the roller axle in the axle seat.