mhurhangee/ep-ind-claims huggingface dataset:
A marine propulsion system comprising: at least one propulsion device (12a, 12b); a user input device (22, 28, 29, 30, 32, 34, 100) configured to facilitate input for engaging automatic propulsion control functionality with respect to a docking surface, characterised in that the user input device (22, 28, 29, 30, 32, 34, 100) comprises a direction indicator display including direction indicators (102a-102d) configured to visually indicate a direction with respect to the marine vessel; a controller configured to: identify a potential docking surface; determine a direction of the potential docking surface with respect to the marine vessel; control a direction indicator (102a-102d) of the direction indicator display to indicate the direction of the potential docking surface with respect to the marine vessel; receive a user selection associated with the direction indicator (102a-102d) of the direction indicator display via the user input device (22, 28, 29, 30, 32, 34, 100) to select the potential docking surface as a selected docking surface; and automatically control propulsion of the marine vessel via the at least one propulsion device (12a, 12b) to move the marine vessel with respect to the selected docking surface. at least one propulsion device (12a, 12b); a user input device (22, 28, 29, 30, 32, 34, 100) configured to facilitate input for engaging automatic propulsion control functionality with respect to a docking surface, characterised in that the user input device (22, 28, 29, 30, 32, 34, 100) comprises a direction indicator display including direction indicators (102a-102d) configured to visually indicate a direction with respect to the marine vessel; a controller configured to: identify a potential docking surface; determine a direction of the potential docking surface with respect to the marine vessel; control a direction indicator (102a-102d) of the direction indicator display to indicate the direction of the potential docking surface with respect to the marine vessel; receive a user selection associated with the direction indicator (102a-102d) of the direction indicator display via the user input device (22, 28, 29, 30, 32, 34, 100) to select the potential docking surface as a selected docking surface; and automatically control propulsion of the marine vessel via the at least one propulsion device (12a, 12b) to move the marine vessel with respect to the selected docking surface. identify a potential docking surface; determine a direction of the potential docking surface with respect to the marine vessel; control a direction indicator (102a-102d) of the direction indicator display to indicate the direction of the potential docking surface with respect to the marine vessel; receive a user selection associated with the direction indicator (102a-102d) of the direction indicator display via the user input device (22, 28, 29, 30, 32, 34, 100) to select the potential docking surface as a selected docking surface; and automatically control propulsion of the marine vessel via the at least one propulsion device (12a, 12b) to move the marine vessel with respect to the selected docking surface.
A door hinge with a first hinge flap and a second hinge flap, which are rotatably connected to each other on an idler and with a holding device, in which the first hinge flap is held in an adjustable manner, wherein the holding device has two adjusting spindles between a first sheet-metal part and a second sheet-metal part, and wherein the first hinge flap is held in an adjustable manner within the holding device along a longitudinal axis of the adjusting spindles in a first direction (x), characterized in that the first sheet-metal part has connection sections (11a, 11b) and is supported against the second sheet-metal part via its connection sections (11a and 11b), wherein tabs are formed on the connection sections (11a, 11b) with a bend, which engage the second sheet-metal part via the bend.
A method of forming a wick using a mandrel, the method comprising: positioning a wick mesh about the mandrel; positioning a sheath about the mandrel and the wick mesh; coupling a first fitting to the mandrel, wherein the first fitting comprises an adapter configured to couple with a source of pressure; and pressurizing the mandrel with the source of pressure to hydraulically expand the mandrel such that that mandrel compresses the wick mesh against the sheath and forms the wick; characterized by pressurizing the mandrel such that the mandrel is permanently deformed into the wick. positioning a wick mesh about the mandrel; positioning a sheath about the mandrel and the wick mesh; coupling a first fitting to the mandrel, wherein the first fitting comprises an adapter configured to couple with a source of pressure; and pressurizing the mandrel with the source of pressure to hydraulically expand the mandrel such that that mandrel compresses the wick mesh against the sheath and forms the wick; characterized by pressurizing the mandrel such that the mandrel is permanently deformed into the wick.
A system for presenting media sheets comprising: an output tray comprising an output bin assembly positioned below a finisher device of the output tray, the output bin assembly comprising: a translatable output floor; characterized in that the output bin assembly further comprises a guide substrate coupled to the translatable output floor to guide the translatable output floor relative to the guide substrate in at least two coordinate directions where the first and second directions extend from an origin at a 90 degree angle relative to one another such that output stacks of media sheets are offset from one another in at least two axes and consecutively output stacks of media sheets are separated on all four edges; and an output structure mechanically coupled to the translatable output floor to drive the translatable output floor relative to the guide substrate. an output tray comprising an output bin assembly positioned below a finisher device of the output tray, the output bin assembly comprising: a translatable output floor; characterized in that the output bin assembly further comprises a translatable output floor; characterized in that the output bin assembly further comprises a guide substrate coupled to the translatable output floor to guide the translatable output floor relative to the guide substrate in at least two coordinate directions where the first and second directions extend from an origin at a 90 degree angle relative to one another such that output stacks of media sheets are offset from one another in at least two axes and consecutively output stacks of media sheets are separated on all four edges; and an output structure mechanically coupled to the translatable output floor to drive the translatable output floor relative to the guide substrate.
A light emitting diode package comprising: a first LED sub-assembly comprising a first LED die, a first reflector having a first principal axis, and a first lens; a second LED sub-assembly comprising a second LED die, a second reflector having a second principal axis, and a second lens; and a common lead frame; wherein the first LED sub-assembly and the second LED sub-assembly are mounted to the common lead frame; wherein the first LED sub-assembly is adapted to generate a first beam to be emitted from the LED package centered in a first direction, and the second LED sub-assembly is adapted to generate a second beam to be emitted from the LED package centered in a second direction; and wherein each of the first LED sub-assembly and the second LED sub-assembly is independently controlled to separately generate the first beam and the second beam, characterized in that the first direction and the second direction are non-parallel. a first LED sub-assembly comprising a first LED die, a first reflector having a first principal axis, and a first lens; a second LED sub-assembly comprising a second LED die, a second reflector having a second principal axis, and a second lens; and a common lead frame;
A renal neuromodulation system for partial or complete incapacitation or other effective disruption of nerves innervating the kidneys, the system comprising: a treatment device including a therapeutic element, wherein the therapeutic element is configured for being positioned within the renal pelvic anatomy, wherein the therapeutic element is configured for having a low-profile configuration in a delivery state and for having an expanded configuration in a deployed state. a treatment device including a therapeutic element, wherein the therapeutic element is configured for being positioned within the renal pelvic anatomy, wherein the therapeutic element is configured for having a low-profile configuration in a delivery state and for having an expanded configuration in a deployed state.
A hot-rolled steel plate having metal structure which is a substantially three-phase structure of ferrite in which complex carbides are dispersedly precipitated, bainite, and island martensite, and an area fraction of the island martensite is 3 to 20%; the steel plate contains: C of 0.03 to 0.1%, Si of 0.01 to 0.5%, Mn of 1.2 to 2.5%, Al of 0.08% or less, Mo of 0.05 to 0.4% Ti of 0.005 to 0.04% by mass, optionally at least one of N of 0.007% or less, Cu of 0.5% or less, Ni of 0.5% or less, Cr of 0.5% or less, B of 0.005% or less, and Ca of 0.0005 to 0.003% by mass, and further optionally Nb of 0.005 to 0.07% and/or V of 0.005 to 0.1% by mass, and further optionally Mg and REM at 0.02 % by mass or less respectively, wherein the remainder is Fe, and inevitable impurities; a ratio of the amount of C to the total amount of Mo, Ti, Nb and V in percent by atom which is given by the following formula: C/(Mo+Ti+Nb+V) is 1.2 to 3, and the complex carbides essentially contain Mo and Ti or as far as Nb and/or V is optionally contained in the steel plate Mo, Ti, Nb and/or V, wherein the complex carbides having grain diameter of less than 10nm, and wherein the steel plate further contains Ti/N of 2 to 8 in percent by mass. C of 0.03 to 0.1%, Si of 0.01 to 0.5%, Mn of 1.2 to 2.5%, Al of 0.08% or less, Mo of 0.05 to 0.4% Ti of 0.005 to 0.04% by mass, optionally at least one of N of 0.007% or less, Cu of 0.5% or less, Ni of 0.5% or less, Cr of 0.5% or less, B of 0.005% or less, and Ca of 0.0005 to 0.003% by mass, and further optionally Nb of 0.005 to 0.07% and/or V of 0.005 to 0.1% by mass, and further optionally Mg and REM at 0.02 % by mass or less respectively, wherein the remainder is Fe, and inevitable impurities; a ratio of the amount of C to the total amount of Mo, Ti, Nb and V in percent by atom which is given by the following formula: C/(Mo+Ti+Nb+V) is 1.2 to 3, and the complex carbides essentially contain Mo and Ti or as far as Nb and/or V is optionally contained in the steel plate Mo, Ti, Nb and/or V, wherein the complex carbides having grain diameter of less than 10nm, and wherein the steel plate further contains Ti/N of 2 to 8 in percent by mass.
A method for controlling the operation of a wind turbine, wherein the wind turbine comprises (i) a mechanical drive train (222, 228), (ii) an electric generator being mechanically connected to the drive train (111, 228), and (iii) a power converter being electrically connected to the generator, wherein the wind turbine forms a part of a wind park which is connectable to a utility grid (i) via a HVDC power transmission system and (ii) via an AC auxiliary power transmission system, and wherein the wind park is in a first operational mode in which the wind park is connected to the utility grid solely via the AC auxiliary power transmission system and in which power is transferred from the utility grid to the wind park, the method comprising receiving, by means of a power controller, an active power reference signal (P*conv, PrefWT) being indicative for the active power which is supposed to be generated by the wind turbine and an active power feedback signal (Pfb) being indicative for the active power which is actually generated by the wind turbine; determining, by means of the power controller and based on the active power reference signal (P*conv, PrefWT) and on the active power feedback signal (Pfb), a first voltage control signal (Vd) and a power controller frequency signal; determining, by means of a frequency droop gain unit and based on the power controller frequency signal, a second voltage control signal (Vq); determining, by means of an integrator unit and based on the power controller frequency signal, an actual angle signal (θ0) being indicative for an actual angle between a rotating dq reference frame and a stationary abc reference frame; and controlling the operation of a network bridge of the power converter based on the first voltage control signal (Vd), the second voltage control signal (Vq), and the actual angle signal (θ0). receiving, by means of a power controller, an active power reference signal (P*conv, PrefWT) being indicative for the active power which is supposed to be generated by the wind turbine and an active power feedback signal (Pfb) being indicative for the active power which is actually generated by the wind turbine; determining, by means of the power controller and based on the active power reference signal (P*conv, PrefWT) and on the active power feedback signal (Pfb), a first voltage control signal (Vd) and a power controller frequency signal; determining, by means of a frequency droop gain unit and based on the power controller frequency signal, a second voltage control signal (Vq); determining, by means of an integrator unit and based on the power controller frequency signal, an actual angle signal (θ0) being indicative for an actual angle between a rotating dq reference frame and a stationary abc reference frame; and controlling the operation of a network bridge of the power converter based on the first voltage control signal (Vd), the second voltage control signal (Vq), and the actual angle signal (θ0).
Method for manufacturing load bars manufactured with resin reinforced with fibres for a resin transfer process which comprises the following stages: - Cutting patterns from fabrics made of dry fibres - Machining a low density core with reduced tolerance and sticking two metal terminals with adhesive in order to form a mandrel - Laminating a preform of dry fibres on the mandrel with pressure and temperature, thus achieving a close fit to the mandrel - Winding a filament of highly resistant dry fibres with high tension, pressing the dry fibres into machined fibre traps in the terminals - Inserting the preform into the mould - Transferring the resin by applying pressure and/or heat in vacuum conditions - Consolidating the resin - Cutting patterns from fabrics made of dry fibres - Machining a low density core with reduced tolerance and sticking two metal terminals with adhesive in order to form a mandrel - Laminating a preform of dry fibres on the mandrel with pressure and temperature, thus achieving a close fit to the mandrel - Winding a filament of highly resistant dry fibres with high tension, pressing the dry fibres into machined fibre traps in the terminals - Inserting the preform into the mould - Transferring the resin by applying pressure and/or heat in vacuum conditions - Consolidating the resin
Heat insulation strip for insertion into a gap between a frame profile of a window, a door, a facade or a glazed roof and a filling element held on the frame profile having a central web on which first ribs (9, 9', 9") facing the frame profile are formed and on which second ribs are formed on the side facing one of the filling elements, wherein the first ribs (9, 9', 9") are arranged offset in the longitudinal direction of the web with respect to the second ribs and respectively one receptacle (11, 12) is formed between two ribs (9, 9', 9", 10) and the receptacle (11, 12) is wider than a rib (9, 9', 9", 10) on the opposite side of the web characterized that during compression of the heat insulation strip between the frame profile and the filling element, the web is deformed into each receptacle (11, 12) in an arcuate manner.
A data communication method, comprising: sending, by a station, sequence numbers to at least two access points, wherein the sequence numbers are used to indicate a sequence in which the access points respond to the station; characterized by broadcasting, by the station, a wake-up message to the at least two access points, wherein the wake-up message is used to notify the at least two access points that the station is in a wake-up state; receiving acknowledgement messages sequentially returned by the at least two access points according to the sequence numbers of the access points, wherein the acknowledgement messages are used to indicate whether the access points need to transmit downlink data; determining, according to the sequentially returned acknowledgement messages, whether the corresponding access points need to transmit the downlink data; and sequentially completing, by the station according to the sequence numbers, downlink data transmission with the access points that need to transmit the downlink data. sending, by a station, sequence numbers to at least two access points, wherein the sequence numbers are used to indicate a sequence in which the access points respond to the station; characterized by broadcasting, by the station, a wake-up message to the at least two access points, wherein the wake-up message is used to notify the at least two access points that the station is in a wake-up state; receiving acknowledgement messages sequentially returned by the at least two access points according to the sequence numbers of the access points, wherein the acknowledgement messages are used to indicate whether the access points need to transmit downlink data; determining, according to the sequentially returned acknowledgement messages, whether the corresponding access points need to transmit the downlink data; and sequentially completing, by the station according to the sequence numbers, downlink data transmission with the access points that need to transmit the downlink data.
A method for scheduling a transmission of data via a first communication channel within a first cell of a cellular network (100, 200, 300), wherein a first base station is assigned to the first cell, and wherein a user equipment is served by the first base station, wherein data between the first base station and the user equipment is transmittable using the first communication channel, wherein the first communication channel is divided into subframes, wherein the cellular network (100, 200, 300) comprises a second base station being assigned to a second cell, wherein the second base station is adapted to use a second communication channel, wherein the second communication channel is divided into subframes, and wherein a part of the subframes is unscheduled by the second base station due to a predefined muting pattern, wherein the first communication channel and the second communication channel each comprise a control channel (401, 407, 411) and an uplink channel (402, 408, 412), the control channel (401, 407, 411) being assigned to downlink communication for allocating uplink communication in the uplink channel (402, 408, 412), the method comprising determining, by the first base station, a first plurality of the subframes of the first communication channel being related in time with the unscheduled subframes of the second communication channel, the first plurality of the subframes comprising a first amount being related to the control channel of the first communication channel and a second amount being related to the uplink channel of the first communication channel, wherein the second amount is shifted to the first amount by adding a predetermined offset to the first amount, the predetermined offset depending on a duplex scheme being applied, and scheduling, by the first base station, the transmission of data between the first base station and the user equipment via the first communication channel so that the data is transmitted in the determined first plurality of the subframes.
Apparatus for making at least one flexible shaped portion on tubular elements, which is defined by a succession of annular ridges and grooves and thus obtaining at least one straw preferably made of paper, comprising external forming means and internal forming means which in cooperation with each other locally deform each of said tubular elements by acting respectively on an external surface and on an internal surface thereof, wherein said external forming means comprise a plurality of forming units configured to be moved between a configuration of engagement with said tubular elements, in which said external forming means and internal forming means locally deform said tubular elements to make said flexible shaped portion, and a configuration of disengagement in which at least said external forming means do not contact said tubular elements, wherein said forming units are configured to be moved alternately, in a selective manner, between said configuration of engagement and said configuration of disengagement, and each of said forming units comprises at least one forming member rotatable about an axis of rotation of its own.
Fire protection training device for generating at least one realistic fire scenario for training purposes, having - a heating burner device which serves as a heat source, characterized in that - the fire protection training device has a plurality of heat radiating surfaces which can be heated, preferably directly, by means of the heating burner device, so that the heat radiating surfaces simulate a smoldering fire within an electrical accumulator. - a heating burner device which serves as a heat source, characterized in that - the fire protection training device has a plurality of heat radiating surfaces which can be heated, preferably directly, by means of the heating burner device, so that the heat radiating surfaces simulate a smoldering fire within an electrical accumulator.
An electrical control system for controlling an appliance, the electrical control system including: a central control unit; one or more momentary switch units connected in series forming a loop, the loop including a first end and a second end, wherein the first end and the second end of the loop are in communication with the central control unit; one or more appliance controllers in communication with the central control unit; and a constant current source connected to the first end of the loop and the second end of the loop connected to ground, wherein the central control unit is configured to measure one or more electrical parameters at the first end of the loop, and the central control unit is configured to associate each measured electrical parameter with a control code, and to send the control code to the one or more appliance controllers. a central control unit; one or more momentary switch units connected in series forming a loop, the loop including a first end and a second end, wherein the first end and the second end of the loop are in communication with the central control unit; one or more appliance controllers in communication with the central control unit; and a constant current source connected to the first end of the loop and the second end of the loop connected to ground, wherein the central control unit is configured to measure one or more electrical parameters at the first end of the loop, and the central control unit is configured to associate each measured electrical parameter with a control code, and to send the control code to the one or more appliance controllers.