mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for removably mounting an underwing pylon to a rib of an aircraft wing, the assembly comprising: a rigid prismatic body connectable to the underwing pylon and insertable in a corresponding prismatic cavity formed in the underwing pylon ; a vertical threaded pin inserted through a vertical through hole of the prismatic body ; a threaded retaining element having an upwardly tapered outer conical surface , a threaded upper and outer cylindrical surface , a threaded inner cylindrical cavity adapted to receive the vertical threaded pin , and a lower flange ; a conical bushing arranged on the outer conical surface of the threaded retaining element ; and a nut threadedly coupled to the threaded upper and outer cylindrical surface ; wherein the assembly further comprises an anti-rotation device for rotationally locking the threaded retaining element to the prismatic body with respect to a vertical axis (A). a rigid prismatic body connectable to the underwing pylon and insertable in a corresponding prismatic cavity formed in the underwing pylon ; a vertical threaded pin inserted through a vertical through hole of the prismatic body ; a threaded retaining element having an upwardly tapered outer conical surface , a threaded upper and outer cylindrical surface , a threaded inner cylindrical cavity adapted to receive the vertical threaded pin , and a lower flange ; a conical bushing arranged on the outer conical surface of the threaded retaining element ; and a nut threadedly coupled to the threaded upper and outer cylindrical surface ; wherein the assembly further comprises an anti-rotation device for rotationally locking the threaded retaining element to the prismatic body with respect to a vertical axis (A).
Resistance projection welding device for resistance projection welding, comprising two electrode holders , each serving to receive a welding electrode to which an electric welding current can be applied, wherein one of the two electrode holders is designed for linear displacement and can be subject to a force acting in a closing direction while a force is applied to components arranged between the welding electrodes and to be welded, characterized in that for the displacement movement of and application of force to one electrode holder a linear drive is exclusively provided, said linear drive being a magnetic linear drive that is force-controlled, wherein the current applied to the linear drive and predeterminable in terms of amperage and/or voltage serves as a measure of the force acting on the components to be welded, wherein, if the amperage and/or voltage falls below the predeterminable amperage and/or voltage, a current is connected to achieve a predeterminable welding force, wherein the linear drive has an armature of plate-shaped design which is movably arranged between two coil arrangements .
Counter-rotating cultivation device , intended for example to be used in a hand-carried cultivator, including at least one input drive axle which transfers rotational force via at least one gear to at least one first output axle and at least one second output axle , wherein the first output axle's rotation axis and the second output axle's rotation axis coincide essentially with each other in the output axles' axial directions, and the counter-rotating cultivation device includes at least one first cultivation tool connected to the first output axle and at least one second cultivation tool which is connected to the second output axle , and the first cultivation tool is comprised of a first cultivating implement and the second cultivation tool is comprised of a second cultivating implement , and wherein the second output axle's direction of rotation is opposite in relation to the first output axle's direction of rotation, said counter-rotating cultivation device being characterized in that the cultivating implements have a form that likens a truncated cone, wherein the truncated cone of the respective cultivation implement is connected with its lesser diameter to the associated output axle and wherein the diameter of the truncated cone of the respective cultivating implement increases towards the gear , and that the truncated cone of the respective cultivating implement overlaps the gear in the direction of the rotation axes of the first and second output axles .
A light-receiving module for an encoder, the light-receiving module comprising: a support body ; a light-receiving element having a surface and disposed on the support body ; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the surface of the light-receiving element , wherein the fiber optic plate is fixed to the light-receiving element by a resin member and the resin member is coupled to the surface of the light-receiving element and a side surface of the fiber optic plate . a support body ; a light-receiving element having a surface and disposed on the support body ; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the surface of the light-receiving element , wherein the fiber optic plate is fixed to the light-receiving element by a resin member and the resin member is coupled to the surface of the light-receiving element and a side surface of the fiber optic plate .
A method for operating a voltage source inverter , VSI, connected to a power grid having a grid voltage ( V grid ), the method comprising: controlling a magnitude of a VSI voltage and a phase between the VSI voltage ( V VSI ) and the grid voltage ( V grid ); determining active (P) and reactive (Q) powers exchanged between the VSI and the grid (S16); estimating (S26) one or more values indicative of the ratio of a grid conductance (G) and of a grid susceptance (B) based on said active and reactive powers (P, Q); characterized in that the method further comprises: determining (S18) an active power deviation ( e P ) between said determined active power (P) and an active power setpoint as well as a reactive power deviation ( e Q ) between said determined reactive power (Q) and a reactive power setpoint; mapping (S22) the active and reactive power deviations ( e P , e Q ) to a phase deviation ( e λ ) and to a magnitude deviation ( e ΔU ) , said mapping being dependent on the estimated one or more values indicative of the ratio of the grid conductance (G) and the grid susceptance (B); and correcting (S24) said magnitude of the VSI voltage and said phase between the VSI voltage ( V VSI ) and the grid voltage ( V grid ), based on said phase and magnitude deviations. controlling a magnitude of a VSI voltage and a phase between the VSI voltage ( V VSI ) and the grid voltage ( V grid ); determining active (P) and reactive (Q) powers exchanged between the VSI and the grid (S16); estimating (S26) one or more values indicative of the ratio of a grid conductance (G) and of a grid susceptance (B) based on said active and reactive powers (P, Q); characterized in that the method further comprises: determining (S18) an active power deviation ( e P ) between said determined active power (P) and an active power setpoint as well as a reactive power deviation ( e Q ) between said determined reactive power (Q) and a reactive power setpoint; mapping (S22) the active and reactive power deviations ( e P , e Q ) to a phase deviation ( e λ ) and to a magnitude deviation ( e ΔU ) , said mapping being dependent on the estimated one or more values indicative of the ratio of the grid conductance (G) and the grid susceptance (B); and correcting (S24) said magnitude of the VSI voltage and said phase between the VSI voltage ( V VSI ) and the grid voltage ( V grid ), based on said phase and magnitude deviations. determining (S18) an active power deviation ( e P ) between said determined active power (P) and an active power setpoint as well as a reactive power deviation ( e Q ) between said determined reactive power (Q) and a reactive power setpoint; mapping (S22) the active and reactive power deviations ( e P , e Q ) to a phase deviation ( e λ ) and to a magnitude deviation ( e ΔU ) , said mapping being dependent on the estimated one or more values indicative of the ratio of the grid conductance (G) and the grid susceptance (B); and correcting (S24) said magnitude of the VSI voltage and said phase between the VSI voltage ( V VSI ) and the grid voltage ( V grid ), based on said phase and magnitude deviations.
An apparatus comprising: a controller for a system management bus, the controller being configured to: detect a trigger event associated with the system management bus; in response to a detection of the trigger event, transmit a broadcast address in a first transmission on the system management bus, wherein the broadcast address is not used in a first communication protocol; characterized in that the controller is further configured to: in response to a determination that the first transmission of the broadcast address was acknowledged, transmit a plurality of transmissions of the broadcast address; determine whether a first count of acknowledgements that were received for the plurality of transmissions of the broadcast address exceeds a first threshold; and in response to a determination that the first count of acknowledgements exceeds the first threshold, select a second communication protocol for transmissions on the management bus. detect a trigger event associated with the system management bus; in response to a detection of the trigger event, transmit a broadcast address in a first transmission on the system management bus, wherein the broadcast address is not used in a first communication protocol; characterized in that the controller is further configured to: in response to a determination that the first transmission of the broadcast address was acknowledged, transmit a plurality of transmissions of the broadcast address; determine whether a first count of acknowledgements that were received for the plurality of transmissions of the broadcast address exceeds a first threshold; and in response to a determination that the first count of acknowledgements exceeds the first threshold, select a second communication protocol for transmissions on the management bus. in response to a determination that the first transmission of the broadcast address was acknowledged, transmit a plurality of transmissions of the broadcast address; determine whether a first count of acknowledgements that were received for the plurality of transmissions of the broadcast address exceeds a first threshold; and in response to a determination that the first count of acknowledgements exceeds the first threshold, select a second communication protocol for transmissions on the management bus.
A transport assembly for a shipping module , comprising: a chassis ; a towing element secured to the chassis ; two opposed wheels mounted on the chassis , wherein the two opposed wheels are pivotally secured to the chassis to permit the transport assembly to be steered; a support assembly pivotally secured to the chassis and adapted to be positioned in a mating relationship with a shipping module proximate to a lower transverse edge of the shipping module ; means for removably securing the support assembly to a shipping module; and a displacement actuator secured between the chassis and the support assembly , said displacement actuator for varying the ground clearance of a shipping module when secured to the support assembly ; characterized by means for fixing the angular orientation of the two opposed wheels at a select one of multiple angular orientations, so as to be able to vary the turning radius of the transport assembly. a chassis ; a towing element secured to the chassis ; two opposed wheels mounted on the chassis , wherein the two opposed wheels are pivotally secured to the chassis to permit the transport assembly to be steered; a support assembly pivotally secured to the chassis and adapted to be positioned in a mating relationship with a shipping module proximate to a lower transverse edge of the shipping module ; means for removably securing the support assembly to a shipping module; and a displacement actuator secured between the chassis and the support assembly , said displacement actuator for varying the ground clearance of a shipping module when secured to the support assembly ; characterized by means for fixing the angular orientation of the two opposed wheels at a select one of multiple angular orientations, so as to be able to vary the turning radius of the transport assembly.
A continuous bar conveyor for the food industry, of the type comprising: - a plurality of bars , constrained at the ends with chains having links configured so as to be engageable by motorized toothed wheels, serving the object of moving the conveyor along fixed guides, - a plurality of spirals wrapping said bars in pairs, said links of said chains and said spirals being configured so as to limit the maximum distance between adjacent bars , but so as to allow their reciprocal movement together, characterized in that , between adjacent successions of at least two bars , wrapped by a spiral , it comprises at least one bar , which is not wrapped by spirals , and to which a sheet of plastic food material is constrained, having elevated resistance to the operating temperature of said conveyor and a smooth, non-stick surface, said sheet resting on the upper surface defined by said spirals and with a dimension in the advancing direction of the conveyor smaller than the distance between successive bars not wrapped by spirals . - a plurality of bars , constrained at the ends with chains having links configured so as to be engageable by motorized toothed wheels, serving the object of moving the conveyor along fixed guides, - a plurality of spirals wrapping said bars in pairs, said links of said chains and said spirals being configured so as to limit the maximum distance between adjacent bars , but so as to allow their reciprocal movement together,
A mobile terminal for communicating data with a base station in a wireless telecommunications system using subframes comprising a plurality of symbols, wherein the mobile terminal is configured to: receive physical-layer control information transmitted by the base station using a first group of the symbols in a subframe; receive higher-layer data transmitted by the base station using a second group of the symbols of the subframe, wherein the number of the symbols in the second group is less than the number of the symbols of the subframe available for transmitting higher-layer data to other mobile terminals , wherein the symbols of the subframe available for transmitting higher-layer data to other mobile terminals do not include the first group of the symbols; process the physical-layer control information to determine an allocation of higher-layer data for the mobile terminal within the second group of the symbols in the subframe; and process the higher-layer data to extract the allocated higher-layer data for the mobile terminal from the second group of the symbols in the subframe. receive physical-layer control information transmitted by the base station using a first group of the symbols in a subframe; receive higher-layer data transmitted by the base station using a second group of the symbols of the subframe, wherein the number of the symbols in the second group is less than the number of the symbols of the subframe available for transmitting higher-layer data to other mobile terminals , wherein the symbols of the subframe available for transmitting higher-layer data to other mobile terminals do not include the first group of the symbols; process the physical-layer control information to determine an allocation of higher-layer data for the mobile terminal within the second group of the symbols in the subframe; and process the higher-layer data to extract the allocated higher-layer data for the mobile terminal from the second group of the symbols in the subframe.
A display apparatus , comprising: a display ; and an integrated speaker which is disposed in a lower region of the display and outputs an audio signal to a downward direction of the display , wherein the integrated speaker comprises a first chamber for outputting a low-range band of the audio signal and a second chamber for outputting a middle-range and a high-range band of the audio signal, wherein the first chamber comprises: a first speaker unit for outputting a low-range band of the audio signal; and a duct , wherein a low-range band of the audio signal output from the first speaker unit is transferred to the duct , and the duct amplifies a low-range band of the audio signal in the downward direction of the display apparatus , wherein the second chamber includes a second speaker unit (620-1,620-2) for outputting a middle-range and high-range band of the audio signal, and wherein the second speaker unit (620-1,620-2) outputs a middle-range and high-range band of the audio signal in the downward direction of the display apparatus , wherein the first chamber is formed in a band pass enclosure or a vented enclosure. a display ; and an integrated speaker which is disposed in a lower region of the display and outputs an audio signal to a downward direction of the display , wherein the integrated speaker comprises a first chamber for outputting a low-range band of the audio signal and a second chamber for outputting a middle-range and a high-range band of the audio signal, wherein the first chamber comprises: a first speaker unit for outputting a low-range band of the audio signal; and a duct , a first speaker unit for outputting a low-range band of the audio signal; and a duct , wherein a low-range band of the audio signal output from the first speaker unit is transferred to the duct , and the duct amplifies a low-range band of the audio signal in the downward direction of the display apparatus , wherein the second chamber includes a second speaker unit (620-1,620-2) for outputting a middle-range and high-range band of the audio signal, and wherein the second speaker unit (620-1,620-2) outputs a middle-range and high-range band of the audio signal in the downward direction of the display apparatus , wherein the first chamber is formed in a band pass enclosure or a vented enclosure.
A vehicular circuit body provided in a vehicle , comprising: a trunk line that extends in at least a front-and-rear direction of the vehicle ; and a plurality of control boxes that are provided in the trunk line , wherein the trunk line includes power source lines of two systems respectively having a predetermined current capacity and a communication line having a predetermined communication capacity, characterized in that one system is a main power system and the other system is a sub-power source system , the main power system is stacked on the sub-power source system forming the power source lines , the communication line is a pair of flat conductors arranged side by side stacked on an earth line stacked on the main power system . a trunk line that extends in at least a front-and-rear direction of the vehicle ; and a plurality of control boxes that are provided in the trunk line , wherein the trunk line includes power source lines of two systems respectively having a predetermined current capacity and a communication line having a predetermined communication capacity, characterized in that one system is a main power system and the other system is a sub-power source system , the main power system is stacked on the sub-power source system forming the power source lines , the communication line is a pair of flat conductors arranged side by side stacked on an earth line stacked on the main power system .
A chemical separation mechanism comprising: a molten salt receptacle having a molten salt mixture disposed within the molten salt receptacle, the molten salt mixture comprising one or more molten salts and one or more fission products; a first electrode ; a second electrode; and an electrode mechanism coupled with the first electrode and configured to secure the first electrode in the molten salt receptacle such that the first electrode is disposed within the molten salt mixture and an electrochemical reaction occurs between the first electrode and one or more of the fission products in the molten salt mixture causing the one or more fission products to be plated on the first electrode when an electrical potential is placed between the first electrode and the second electrode. a molten salt receptacle having a molten salt mixture disposed within the molten salt receptacle, the molten salt mixture comprising one or more molten salts and one or more fission products; a first electrode ; a second electrode; and an electrode mechanism coupled with the first electrode and configured to secure the first electrode in the molten salt receptacle such that the first electrode is disposed within the molten salt mixture and an electrochemical reaction occurs between the first electrode and one or more of the fission products in the molten salt mixture causing the one or more fission products to be plated on the first electrode when an electrical potential is placed between the first electrode and the second electrode.
Compartment for storing and transporting articles within a cuboid outer packaging , consisting of cardboard elements provided with half-slots and interlocking via these half-slots , the free ends (6A, 6B; 7A, 7B; 8A, 8B) of each cardboard element are interconnected to form a topological ring, characterized in that a first cardboard element is folded into a square top view with a side length of three units (E) and a second and a third cardboard element are each folded into a rectangular top view with a side length of one and five units (E), respectively.