mhurhangee/ep-ind-claims huggingface dataset:
A quantum detector configured to receive a microwave signal from a microwave source (47, 57), wherein the quantum detector comprises a main bias current source and a main element (34, 44, 54) formed by a capacitively shunted main Josephson junction which is coupled to the main bias current source, wherein the main element is configured to be coupled to the microwave source which inputs the microwave signal to the main element, and the quantum detector further comprises a Josephson transmission line which is coupled to the main element for outputting a measurement signal, characterized in that the Josephson transmission line comprises at least a first set (31, 41, 51) of JTL elements and a second set of JTL (32, 42, 52) elements, wherein the first JTL element in the first set is formed by a capacitively shunted Josephson junction coupled inductively to the main Josephson junction, and all other JTL elements in the first and second sets are formed by a capacitively shunted Josephson junction coupled inductively to the Josephson junction of the neighbouring JTL element, wherein the first and second sets of JTL elements are ordered in the Josephson transmission line so that the first set (31, 41, 51) is closest to the main element (34, 44, 54), and each JTL element in the first set is weakly damped, and the JTL elements in the second set are ordered in order of increasing damping, so that the JTL element in the second set which is closest to the first set has the weakest damping, and the JTL element in the second set which is furthest away from the first set has the strongest damping, and all other JTL elements in the second set have stronger damping than the neighboring JTL element on the side of the first set, and weaker damping than the neighboring JTL element on the opposite side. characterized in that the Josephson transmission line comprises at least a first set (31, 41, 51) of JTL elements and a second set of JTL (32, 42, 52) elements, wherein the first JTL element in the first set is formed by a capacitively shunted Josephson junction coupled inductively to the main Josephson junction, and all other JTL elements in the first and second sets are formed by a capacitively shunted Josephson junction coupled inductively to the Josephson junction of the neighbouring JTL element, wherein the first and second sets of JTL elements are ordered in the Josephson transmission line so that the first set (31, 41, 51) is closest to the main element (34, 44, 54), and each JTL element in the first set is weakly damped, and the JTL elements in the second set are ordered in order of increasing damping, so that the JTL element in the second set which is closest to the first set has the weakest damping, and the JTL element in the second set which is furthest away from the first set has the strongest damping, and all other JTL elements in the second set have stronger damping than the neighboring JTL element on the side of the first set, and weaker damping than the neighboring JTL element on the opposite side.
A method for managing coexistence between multiple transceivers, comprising: identifying one or more associated transceivers; determining respective properties of the associated transceivers; generating one or more configuration parameters to be utilized by respective associated transceivers in connection with management of events associated with the respective associated transceivers based on notifications provided between associated transceivers, characterized in that the generating comprises maintaining a database of potential collision events between respective associated transceivers and a set of resolutions corresponding to respective potential collision events; and wherein the generating further comprises generating parameters relating to absolute priorities of events executable by the one or more associated transceivers, and wherein the absolute priorities are generated in a consistent manner across substantially all associated transceivers. identifying one or more associated transceivers; determining respective properties of the associated transceivers; generating one or more configuration parameters to be utilized by respective associated transceivers in connection with management of events associated with the respective associated transceivers based on notifications provided between associated transceivers, characterized in that the generating comprises maintaining a database of potential collision events between respective associated transceivers and a set of resolutions corresponding to respective potential collision events; and wherein the generating further comprises generating parameters relating to absolute priorities of events executable by the one or more associated transceivers, and wherein the absolute priorities are generated in a consistent manner across substantially all associated transceivers.
A passive flow splitting system for use in a turbine engine fuel control system to provide split fuel flow to a primary fuel manifold and a secondary fuel manifold to supply primary fuel injectors and secondary fuel injectors, respectively, for particular combustion zones thereof, comprising: a passive fuel divider valve configured to provide intentionally different split ratios dependent on ascending or descending fuel mass flow rate, the fuel divider valve including a primary piston and a secondary piston, fuel divider valve comprising a housing having an inlet, a primary manifold port, a secondary manifold port, and a plurality of flow paths (166, 167) defined therein, wherein the primary piston is moveable independently of the secondary piston to meter fuel flow to the primary manifold of an engine fuel supply system, and being biased away from the secondary piston, wherein the secondary piston is configured to meter fuel flow to the secondary manifold of the engine fuel supply system, and being biased to prohibit such flow, and wherein the primary piston strokes with increasing fuel pressure to meter the fuel flow to the primary manifold, and contacts the secondary piston with increasing fuel pressure to cause the secondary piston to meter flow to the secondary manifold, the primary piston and the secondary piston being hydro-locked during such metering; an ecology valve configured to reservoir fuel at least from the secondary manifold when the secondary piston of the fuel divider valve is positioned to prohibit fuel flow thereto; and a transfer valve configured to control a state of the ecology valve based on fuel pressure supplied to the secondary manifold by the fuel divider valve. a passive fuel divider valve configured to provide intentionally different split ratios dependent on ascending or descending fuel mass flow rate, the fuel divider valve including a primary piston and a secondary piston, fuel divider valve comprising a housing having an inlet, a primary manifold port, a secondary manifold port, and a plurality of flow paths (166, 167) defined therein, wherein the primary piston is moveable independently of the secondary piston to meter fuel flow to the primary manifold of an engine fuel supply system, and being biased away from the secondary piston, wherein the secondary piston is configured to meter fuel flow to the secondary manifold of the engine fuel supply system, and being biased to prohibit such flow, and wherein the primary piston strokes with increasing fuel pressure to meter the fuel flow to the primary manifold, and contacts the secondary piston with increasing fuel pressure to cause the secondary piston to meter flow to the secondary manifold, the primary piston and the secondary piston being hydro-locked during such metering; an ecology valve configured to reservoir fuel at least from the secondary manifold when the secondary piston of the fuel divider valve is positioned to prohibit fuel flow thereto; and a transfer valve configured to control a state of the ecology valve based on fuel pressure supplied to the secondary manifold by the fuel divider valve.
Height- and/or inclination-adjustable head restraint for a vehicle seat comprising at least one holding element, a head restraint cushion, a head restraint structure and an inclination-adjustment mechanism which comprises at least one latching plate, a toothed profile and an actuating element, wherein the latching plate is arranged on the holding element and in a locked state of the inclination-adjustment mechanism engages positively and/or non-positively in the toothed profile which is arranged on the head restraint structure and wherein the head restraint structure at its lower end is coupled pivotably to the holding element and, upon pivoting the head restraint about the holding element in a non-locked state of the inclination-adjustment mechanism, the positive and/or non-positive connection between the latching plate and the toothed profile is released such that a relative movement is brought about between the latching plate and the toothed profile, wherein - the latching plate is displaceably arranged on the holding element and characterized in that - the actuating element and an activating element of the latching plate cooperate mechanically by means of two corresponding shaped oblique portions, wherein the activating element is configured to correspond at least partially with the actuating element and a horizontal movement of the actuating element is transformed into a linear vertical movement of the latching plate away from the latching profile. - the latching plate is displaceably arranged on the holding element and characterized in that - the actuating element and an activating element of the latching plate cooperate mechanically by means of two corresponding shaped oblique portions, wherein the activating element is configured to correspond at least partially with the actuating element and a horizontal movement of the actuating element is transformed into a linear vertical movement of the latching plate away from the latching profile.
A drive train for a motor vehicle, especially a rail vehicle, 1.1 having at least one drive machine which generates driving power for driving the vehicle; 1.2 having a power split which is connected downstream of the drive machine in the direction of the driving power flow and which splits the driving power into a plurality of power branches (5, 6, 7, 24) which are parallel with respect to each other; 1.3 having a summation gear which combines the driving power from the plurality of parallel power branches (5, 6, 7, 24) and conducts the combined driving power for driving drive wheels of the motor vehicle, wherein 1.4 the parallel power branches (5, 6, 7, 24) comprise a first power branch with a first hydrodynamic coupling and/or a first hydrodynamic converter which transmits the driving power of the first power branch hydrodynamically, and 1.5 the parallel power branches (5, 6, 7, 24) comprise a second power branch with a second hydrodynamic coupling and/or a second hydrodynamic converter which transmits the driving power of the second power branch hydrodynamically; characterized in that 1.6 the parallel power branches (5, 6, 7, 24) comprise a third, purely mechanical power branch which transmits the driving power of the third power branch exclusively mechanically in parallel with the hydrodynamic power transmission in the first and/or the second power branch (5, 6). 1.1 having at least one drive machine which generates driving power for driving the vehicle; 1.2 having a power split which is connected downstream of the drive machine in the direction of the driving power flow and which splits the driving power into a plurality of power branches (5, 6, 7, 24) which are parallel with respect to each other; 1.3 having a summation gear which combines the driving power from the plurality of parallel power branches (5, 6, 7, 24) and conducts the combined driving power for driving drive wheels of the motor vehicle, wherein 1.4 the parallel power branches (5, 6, 7, 24) comprise a first power branch with a first hydrodynamic coupling and/or a first hydrodynamic converter which transmits the driving power of the first power branch hydrodynamically, and 1.5 the parallel power branches (5, 6, 7, 24) comprise a second power branch with a second hydrodynamic coupling and/or a second hydrodynamic converter which transmits the driving power of the second power branch hydrodynamically; 1.6 the parallel power branches (5, 6, 7, 24) comprise a third, purely mechanical power branch which transmits the driving power of the third power branch exclusively mechanically in parallel with the hydrodynamic power transmission in the first and/or the second power branch (5, 6).
Soldering system, comprising a soldering iron, a soldering station, and touch-sensitive buttons that detect a use of the soldering system or allow a setting of different operating parameters of the soldering system, characterized in that the soldering station comprises a touch-sensitive operating panel, that the operating panel of the soldering station comprises a glass plate with an antistatic coating, so that an electrostatic discharge of the soldering station to electrostatically sensitive components is avoidable, that the operating panel comprises a touch-sensitive rotary button, and that the glass plate comprises a finger guide for the touch-sensitive rotary button.
A triboelectric generator having a first generator element and a second generator element, the first and second generator elements being arranged so that relative movement between them generates a potential difference between them due to a triboelectrification effect, wherein: the first generator element comprises a first triboelectric material having a first electron affinity; the second generator element comprises a second triboelectric material having a second electron affinity, different to the first electron affinity; and characterised in that the first generator element comprises a template structure having an array of channels extending in the template structure, the channels being substantially filled with the first material to define a templated array of nanowires of the first material. the first generator element comprises a first triboelectric material having a first electron affinity; the second generator element comprises a second triboelectric material having a second electron affinity, different to the first electron affinity; and characterised in that the first generator element comprises a template structure having an array of channels extending in the template structure, the channels being substantially filled with the first material to define a templated array of nanowires of the first material.
A luminaire for mounting on a pole, the luminaire comprising: a luminaire housing in which illuminating means are arranged to emit light through a light emitting surface of the luminaire, and a pole flange having a receptacle for attachment to an end of a luminaire pole, wherein the pole flange is mountable to the luminaire housing in different angular positions so that the light emitting surface is positionable in different positions relative to the receptacle, the light housing having a plug-in region with a plurality of plug-in positions into which a plug-in element (16, 18) of the post flange can be selectively plugged, and the luminaire housing having an abutment surface which is supported on a support region (18, 16) of the pole flange at a distance from the plug-in region when the plug-in element (16, 18) is plugged into any one of the plug-in positions, characterized in that the light further comprises a spring which, for fixing the pole flange to the light housing, applies an elastic force in a region between the abutment surface and the support region (18, 16), which elastic force prevents the support region (18, 16) from the abutment surface, or in that the luminaire housing has a toggle lock which is designed to fix the supporting region (18, 16) of the pole flange with respect to the abutment surface of the luminaire housing. a luminaire housing in which illuminating means are arranged to emit light through a light emitting surface of the luminaire, and a pole flange having a receptacle for attachment to an end of a luminaire pole, wherein the pole flange is mountable to the luminaire housing in different angular positions so that the light emitting surface is positionable in different positions relative to the receptacle, the light housing having a plug-in region with a plurality of plug-in positions into which a plug-in element (16, 18) of the post flange can be selectively plugged, and the luminaire housing having an abutment surface which is supported on a support region (18, 16) of the pole flange at a distance from the plug-in region when the plug-in element (16, 18) is plugged into any one of the plug-in positions, characterized in that the light further comprises a spring which, for fixing the pole flange to the light housing, applies an elastic force in a region between the abutment surface and the support region (18, 16), which elastic force prevents the support region (18, 16) from the abutment surface, or in that the luminaire housing has a toggle lock which is designed to fix the supporting region (18, 16) of the pole flange with respect to the abutment surface of the luminaire housing.
A method of decoding video, comprising: defining a plurality of coding unit, CU, templates within a decoded area of a video frame, each of the CU templates being positioned either above, to the left of, or above and to the left of a current decoding position for which data was intra predicted and being spaced apart from the current decoding position by a number of reference lines, wherein CU templates are defined for different reference lines; defining a search window within said decoded area for each of said plurality of CU templates, each search window being between the CU templates and the current decoding position; generating a plurality of candidate prediction templates for each of said plurality of CU templates from the pixel values in the search window associated with the CU template, each of said plurality of candidate prediction templates being generated using different intra prediction modes; calculating a matching cost between each of said plurality of CU templates associated with the current reference line and each of said associated plurality of candidate prediction templates; selecting an intra prediction mode that generated the candidate prediction template that had the lowest matching cost relative to one of said plurality of CU templates; and generating a prediction CU for said current decoding position using said intra prediction mode. defining a plurality of coding unit, CU, templates within a decoded area of a video frame, each of the CU templates being positioned either above, to the left of, or above and to the left of a current decoding position for which data was intra predicted and being spaced apart from the current decoding position by a number of reference lines, wherein CU templates are defined for different reference lines; defining a search window within said decoded area for each of said plurality of CU templates, each search window being between the CU templates and the current decoding position; generating a plurality of candidate prediction templates for each of said plurality of CU templates from the pixel values in the search window associated with the CU template, each of said plurality of candidate prediction templates being generated using different intra prediction modes; calculating a matching cost between each of said plurality of CU templates associated with the current reference line and each of said associated plurality of candidate prediction templates; selecting an intra prediction mode that generated the candidate prediction template that had the lowest matching cost relative to one of said plurality of CU templates; and generating a prediction CU for said current decoding position using said intra prediction mode.
A flow control valve for hydraulic shock absorbers of the variable damping type, said flow control valve comprising: a pressure tube; a piston displaceable in the interior of the pressure tube and dividing it in a compression chamber and a traction chamber which are selectively and bi-directionally communicated to each other by means of axial passages (14a, 14b) provided in the piston; a hydraulic fluid reservoir, provided with a selective bidirectional fluid communication with the compression chamber; and a control valve providing a selective unidirectional fluid communication, with a variable section, between the traction chamber and the reservoir, said control valve comprises: a tubular body externally attached to the pressure tube and comprising a regulating chamber provided with an inlet opening maintained in fluid communication with the traction chamber, an outlet chamber maintained in fluid communication with the reservoir by at least one outlet orifice, a control orifice communicating the regulating chamber and the outlet chamber to each other, and a guide means coaxial to the control orifice; a shutter pin having a rod portion and a shutter portion with a cross section varying along at least part of the longitudinal extension of said shutter portion, said rod portion and shutter portion being jointly, selectively and axially displaceable in the guide means and in the interior of the control orifice, respectively, between a closing position of the control orifice and a plurality of open positions of the latter, in each of said positions the shutter portion forming, with the control orifice, a respective annular section for the passage of the hydraulic fluid to the reservoir; and an actuator means operatively associated with the shutter pin in order to axially displace it, in the interior of the control orifice, to said closing and opening positions of the control orifice, said flow control valve being characterized in that said guide means being defined by an axial hole provided through the tubular body and having an end opened to the interior of the outlet chamber and an opposite end turned to the actuator, the rod portion of the shutter pin being axially displaceable in the interior of the axial hole and provided with at least one circumferential channel housing a sealing ring which cooperates with the inner face of the axial hole of the tubular body, said shutter portion presenting a free end region with a cross section of reduced contour and, in its junction region with the rod portion, an annular step, said shutter portion being disposed through the outlet chamber and through the control orifice and axially displaceable between the closed position, in which the annular step is seated against an annular wall portion of the outlet chamber, around the control orifice, completely blocking the latter, and the open positions, in which the annular step is maintained spaced from the control orifice.