mhurhangee/ep-ind-claims huggingface dataset:
Ejector assembly for a movable furniture part, for example a drawer, composed of two ejector units (12, 13) which are interconnected by a synchronizing bar, wherein the ejector units (12, 13) are provided for ejecting the movable furniture part in an opening direction of an item of furniture in relation to a furniture base unit of the item of furniture, and wherein the synchronizing bar synchronizes a switching function of the ejector units (12, 13), wherein at least one ejector unit (12, 13) is designed in such a manner that the synchronizing bar on a receptacle of the first ejector unit (12, 13) is slidable so far in an insertion direction B that said synchronizing bar is able to be introduced into a receptacle of an opposite second ejector unit (12, 13), wherein positioning means for positioning the synchronizing bar in a functional position between the ejector units (12, 13) are provided, characterized in that the receptacle of the first ejector unit comprises a transmission member which is designed in such a manner that the synchronizing bar on the receptacle of the first ejector unit in a front region, in a first movement performed perpendicularly to the insertion direction B, is insertable into the transmission member and subsequently, in a further movement in the insertion direction B, is able to be plugged into the transmission member, wherein the transmission member possesses lips (21, 22) which guide the synchronizing bar during the insertion procedure into the receptacle of the first ejector unit, and wherein the lips (21, 22) comprise or encompass an external contour of the synchronizing bar that in the cross section of the longitudinal axis of the synchronizing bar is non-circular, so that the synchronizing bar couples to the transmission member in a substantially form-fitting manner in such a way that a force or rotating movement of the receptacle can be transmitted to the synchronizing bar.
Method of operating a Consumer operable at at least one phase comprising: - Measurement of at least one electrical variable on at least two phases on the input side of a switching matrix having at least two outputs on the subscriber network side, the inputs being connected to different phases of a subscriber network, - Assignment of at least one input of the switching matrix to at least one output of the switching matrix as a function of the measurement, at least fewer outputs being assigned to inputs in the switching matrix than inputs being present, and the assignment of phases of the subscriber network to individual phases of the subscriber taking place selectively as a function of information about the measured variable, - and wherein the electrical quantity between a distribution network and a subscriber network is measured by a smart meter. - Measurement of at least one electrical variable on at least two phases on the input side of a switching matrix having at least two outputs on the subscriber network side, the inputs being connected to different phases of a subscriber network, - Assignment of at least one input of the switching matrix to at least one output of the switching matrix as a function of the measurement, at least fewer outputs being assigned to inputs in the switching matrix than inputs being present, and the assignment of phases of the subscriber network to individual phases of the subscriber taking place selectively as a function of information about the measured variable, - and wherein the electrical quantity between a distribution network and a subscriber network is measured by a smart meter.
A method performed by a User Equipment, UE, (300, 400) for power control of uplink, UL, transmissions, the UE being connected in dual connectivity mode to simultaneously receive and transmit to at least a first network node and a second network node to allow the UE to send an UL transmission to the first network node and an UL transmission to the second network node simultaneously, the method comprising: - determining to perform a first UL transmission to the first network node and a second UL transmission to the second network node, the UL transmissions to be performed simultaneously, - determining (120, 220) a first UL transmission power for the first UL transmission and a second UL transmission power for the second UL transmission, and - transmitting the first and the second UL transmissions at the first and the second UL transmission powers, respectively, when a sum of the first and second UL transmission powers is below a maximum transmission power, wherein if the sum of the first and the second UL transmission powers exceeds the maximum transmission power, the method comprising prioritising between the first UL transmission and the second UL transmission according to a predetermined rule, and wherein the predetermined rule indicates to the UE to prioritise the first UL transmission or the second UL transmission based on a link quality between the UE and the first and the second network nodes, respectively. - determining to perform a first UL transmission to the first network node and a second UL transmission to the second network node, the UL transmissions to be performed simultaneously, - determining (120, 220) a first UL transmission power for the first UL transmission and a second UL transmission power for the second UL transmission, and - transmitting the first and the second UL transmissions at the first and the second UL transmission powers, respectively, when a sum of the first and second UL transmission powers is below a maximum transmission power,
A system for detection with high temporal and spatial resolution, comprising an image intensifier, at least one high spatial resolution detector, at least one high temporal resolution detector, and electronics, connected to these detectors (4, 5) and connected to the image intensifier, arranged and setup so that an optical signal amplified on the image intensifier is subsequently recorded on the at least one high spatial resolution detector and on the at least one high temporal resolution detector characterised in that said electronics executes an algorithm to control the system in such a way that it either opens the image intensifier simultaneously with the start of recording of the at least one light signal on the high temporal resolution detector and on the at least one high spatial resolution detector, counts events on the at least one high temporal resolution detector, and closes the image intensifier after a preset number of events is counted, or opens the image intensifier for a predetermined time, shorter than the frame exposure time of the at least one high spatial resolution detector, counts events on the at least one high temporal resolution detector, then closes the image intensifier, and if the number of counted events during the opening time of the image intensifier does not exceed the preset number of events - the electronics opens and closes the image intensifier for successive time intervals in pulsed mode, shorter than the frame exposure time of the at least one high spatial resolution detector and counts the events on the at least one high temporal resolution detector in these time intervals, until the preset total number of events is reached.
A disk-shaped clamping plate for mounting in a central opening of a wheel hub of a vehicle wheel, wherein the clamping plate comprises at least one expander device and at least two clamping jaws (11, 13), and wherein the at least two clamping jaws (11, 13) are connected to each other by the at least one expanding device so as to be movable towards and away from each other.
A method for sharing states from a device, the method characterised by: a) identifying, by the device intermediary to a client and one or more servers, a script to be executed on the one or more servers; b) determining, by the device, one or more variables in the script for which the device maintains a state; c) obtaining, by the device, the state of the each of the one or more variables; and d) transmitting, by the device to the one or more servers, a message comprising the state of the one or more variables. a) identifying, by the device intermediary to a client and one or more servers, a script to be executed on the one or more servers; b) determining, by the device, one or more variables in the script for which the device maintains a state; c) obtaining, by the device, the state of the each of the one or more variables; and d) transmitting, by the device to the one or more servers, a message comprising the state of the one or more variables.
A method of operating a vehicle having a drive train, an electric motor/generator and an engine, the engine having a crankshaft, an intake manifold and a plurality of working chambers, the method comprising: while the engine is operating, deactivating all the working chambers in response to a no engine torque request such that none of the working chambers are fired and no air is pumped through the working chambers as the crankshaft rotates; and disengaging the engine from the drive train so that vehicle motion and crankshaft rotation are no longer mechanically coupled, wherein the crankshaft rotation rate is controlled while the engine is disengaged from the drive train by adding or removing torque from the crankshaft by the electric motor/generator, the crankshaft rotation rate being controlled to ensure that the crankshaft continues to rotate throughout the duration of the no engine torque request, wherein the engine is kept spinning at a low speed, such as an engine ignition speed or engine idle speed. while the engine is operating, deactivating all the working chambers in response to a no engine torque request such that none of the working chambers are fired and no air is pumped through the working chambers as the crankshaft rotates; and disengaging the engine from the drive train so that vehicle motion and crankshaft rotation are no longer mechanically coupled, wherein the crankshaft rotation rate is controlled while the engine is disengaged from the drive train by adding or removing torque from the crankshaft by the electric motor/generator, the crankshaft rotation rate being controlled to ensure that the crankshaft continues to rotate throughout the duration of the no engine torque request, wherein the engine is kept spinning at a low speed, such as an engine ignition speed or engine idle speed.
A liquid crystal display device, comprising: a plurality of pixels including a liquid crystal layer; a color filter layer disposed over the liquid crystal layer, the color filter layer comprising a red color filter layer, a green color filter layer, and a blue color filter layer, wherein the red color filter layer comprises anthraquinone pigments, wherein the red color filter layer includes a color resin wherein the anthraquinone pigments are dispersed in the color resin, wherein each anthraquinone pigment has the chemical formula: the liquid crystal display device further comprising a backlight configured to provide light to the plurality of pixels, wherein the backlight comprises a light source, wherein the light source comprises at least one white light emitting diode, wherein the anthraquinone pigments have a pigment size in the range from about 50μm to about 150μm, and wherein the red color filter layer comprises an amount of the anthraquinone pigments in the range from about 40wt% to about 45wt%. a plurality of pixels including a liquid crystal layer; a color filter layer disposed over the liquid crystal layer, the color filter layer comprising a red color filter layer, a green color filter layer, and a blue color filter layer, wherein the red color filter layer comprises anthraquinone pigments, wherein the red color filter layer includes a color resin wherein the anthraquinone pigments are dispersed in the color resin, wherein each anthraquinone pigment has the chemical formula: the liquid crystal display device further comprising a backlight configured to provide light to the plurality of pixels, wherein the backlight comprises a light source, wherein the light source comprises at least one white light emitting diode, wherein the anthraquinone pigments have a pigment size in the range from about 50μm to about 150μm, and wherein the red color filter layer comprises an amount of the anthraquinone pigments in the range from about 40wt% to about 45wt%. the liquid crystal display device further comprising a backlight configured to provide light to the plurality of pixels, wherein the backlight comprises a light source, wherein the light source comprises at least one white light emitting diode, wherein the anthraquinone pigments have a pigment size in the range from about 50μm to about 150μm, and wherein the red color filter layer comprises an amount of the anthraquinone pigments in the range from about 40wt% to about 45wt%.
A partial survivability method implemented in a node in an Optical Transport Unit Cn, OTUCn, network, the partial survivability method comprising: subsequent to an optical carrier Optical Tributary Signal, OTSi,, failure of a plurality of optical carriers, determining which Optical Data Unit k, ODUk, services in an OTUCn associated with the OTSi are affected; signaling a partial failure for the OTUCn and signaling a failure only for the affected ODUk services; adjusting overhead associated with the OTUCn based on the OTSi failure; the method characterized by applying actions on the affected ODUk services subsequent to the OTSi failure; shuffling consequently one or more of the affected ODUk services with unaffected ODUk services based on priority through an edit operation at the node. subsequent to an optical carrier Optical Tributary Signal, OTSi,, failure of a plurality of optical carriers, determining which Optical Data Unit k, ODUk, services in an OTUCn associated with the OTSi are affected; signaling a partial failure for the OTUCn and signaling a failure only for the affected ODUk services; adjusting overhead associated with the OTUCn based on the OTSi failure; the method characterized by applying actions on the affected ODUk services subsequent to the OTSi failure; shuffling consequently one or more of the affected ODUk services with unaffected ODUk services based on priority through an edit operation at the node.
A method for controlling welding, the method comprising: initiating induction welding by operating an induction coil (119, 412) along a weld interface (130, 440) of a first composite part (120, 420) comprising a matrix of thermoplastic reinforced by fibers, in order to join the first composite part to a second composite part (121, 430); determining a measured magnetic field strength at a location distinct from the induction coil (119, 412); and determining a welding temperature at the weld interface (130, 440) of the first composite part (120, 420) based on the measured magnetic field strength and on a difference between the measured magnetic field strength and a threshold magnetic field strength during the induction welding. initiating induction welding by operating an induction coil (119, 412) along a weld interface (130, 440) of a first composite part (120, 420) comprising a matrix of thermoplastic reinforced by fibers, in order to join the first composite part to a second composite part (121, 430); determining a measured magnetic field strength at a location distinct from the induction coil (119, 412); and determining a welding temperature at the weld interface (130, 440) of the first composite part (120, 420) based on the measured magnetic field strength and on a difference between the measured magnetic field strength and a threshold magnetic field strength during the induction welding.
A motorcycle in which an engine is disposed between a front wheel and a rear wheel and an exhaust pipe for guiding an exhaust gas emitted from the engine is extended forward relative to the engine, the motorcycle comprising: a transmission (27, 30, 31) that transmits a power from the engine to the rear wheel and changes a rotational speed of the power by shifting gears; characterized by an electric motor, for propelling the motorcycle, that is disposed behind a cylinder portion of the engine and is configured to apply a torque to a crankshaft of the engine upstream of the transmission in a power-transmitting direction in which a power from the engine is transmitted to the rear wheel through the transmission (27, 30, 31); wherein a torque applied from the engine to the crankshaft is transmitted to the rear wheel through the transmission (27, 30, 31), and a torque applied from the electric motor to the crankshaft is transmitted to the rear wheel through the transmission (27, 30, 31). a transmission (27, 30, 31) that transmits a power from the engine to the rear wheel and changes a rotational speed of the power by shifting gears;
A repeater configured to de-aggregate downlink signals as they are propagated outward from a base station to mobile terminals along a multi-hop repeater chain, and to aggregate uplink signals as they are propagated inward from mobile terminals along the multi-hop repeater chain to the base station, said repeater comprising: an uplink transceiver and a downlink transceiver that are configured to conduct repeater-to-mobile-terminal transmissions and mobile-terminal-to-repeater receptions using a base station frequency spectrum and to conduct repeater-to-repeater transmissions and receptions using a repeater frequency spectrum, characterized in that the repeater frequency spectrum is outside of the base station frequency spectrum, and that the repeater further comprises a spectrum analyzer and an associated controller, wherein the controller is configured to make interference measurements within the repeater frequency spectrum to identify one or more preferred frequency bands in the repeater frequency spectrum, for use by the repeater in relaying uplink or downlink signals. an uplink transceiver and a downlink transceiver that are configured to conduct repeater-to-mobile-terminal transmissions and mobile-terminal-to-repeater receptions using a base station frequency spectrum and to conduct repeater-to-repeater transmissions and receptions using a repeater frequency spectrum, characterized in that the repeater frequency spectrum is outside of the base station frequency spectrum, and that the repeater further comprises a spectrum analyzer and an associated controller, wherein the controller is configured to make interference measurements within the repeater frequency spectrum to identify one or more preferred frequency bands in the repeater frequency spectrum, for use by the repeater in relaying uplink or downlink signals.
A process for producing a stabilised crystalline A/M/X material, which stabilised crystalline A/M/X material comprises an oxide of formula p O q and a compound of formula a b c which is a perovskite, wherein the stabilised crystalline A/M/X material is a polycrystalline material comprising a plurality of crystallites comprising the compound of formula a b c, and a plurality of grain boundaries between the said crystallites, wherein the oxide of formula p O q is distributed along the grain boundaries, wherein: comprises at least one element Z capable of forming an oxide with a band gap of at least 3 eV, wherein each element Z is selected from Al, Si, Zr, Ga, Ba, Nb, Mg, Y, Ti, Ni, and Zn; p and q are positive numbers; comprises one or more A cations, each selected from: an alkali metal cation; or C 1-10 alkylammonium, C 2-10 alkenylammonium, iminium, C 1-10 alkyliminium, C 3-10 cycloalkylammonium and C 3-10 cycloalkyliminium optionally substituted with one or more substituents selected from amine, C 1-6 alkylamine, imine, C 1-6 alkylimine, C 1-6 alkyl, C 2-6 alkenyl, C 3-6 cycloalkyl and C 6-12 aryl; comprises one or more M cations, each selected from Ca 2+, Sr 2+, Cd 2+, Cu 2+, Ni 2+, Mn 2+, Fe 2+, Co2 +, Pd 2+, Ge 2+, Sn 2+, Pb 2+, Yb 2+, and Eu 2+; comprises one or more X anions each selected from F -, Cl -, Br - and I -; a is an integer from 1 to 6; b is an integer from 1 to 6; and c is an integer from 1 to 18, and wherein the process comprises treating: (a) an A precursor comprising an A cation; and (b) an M precursor comprising an M cation; with an oxide precursor comprising an element Z, in the presence of a source of the one or more X anions. comprises at least one element Z capable of forming an oxide with a band gap of at least 3 eV, wherein each element Z is selected from Al, Si, Zr, Ga, Ba, Nb, Mg, Y, Ti, Ni, and Zn; p and q are positive numbers; comprises one or more A cations, each selected from: an alkali metal cation; or C 1-10 alkylammonium, C 2-10 alkenylammonium, iminium, C 1-10 alkyliminium, C 3-10 cycloalkylammonium and C 3-10 cycloalkyliminium optionally substituted with one or more substituents selected from amine, C 1-6 alkylamine, imine, C 1-6 alkylimine, C 1-6 alkyl, C 2-6 alkenyl, C 3-6 cycloalkyl and C 6-12 aryl; comprises one or more M cations, each selected from Ca 2+, Sr 2+, Cd 2+, Cu 2+, Ni 2+, Mn 2+, Fe 2+, Co2 +, Pd 2+, Ge 2+, Sn 2+, Pb 2+, Yb 2+, and Eu 2+; comprises one or more X anions each selected from F -, Cl -, Br - and I -; a is an integer from 1 to 6; b is an integer from 1 to 6; and c is an integer from 1 to 18, and wherein the process comprises treating: (a) an A precursor comprising an A cation; and (b) an M precursor comprising an M cation; (a) an A precursor comprising an A cation; and (b) an M precursor comprising an M cation; with an oxide precursor comprising an element Z, in the presence of a source of the one or more X anions.
A method of wireless communication, comprising: transmitting a first message from a device to a first base station, the first message indicating that the device desires to initiate a device-to-device, D2D communication session, the first message comprising at least one group identification, ID code to the first base station that identifies a set of one or more devices engaging in the D2D communication session; receiving a second message from the first base station comprising at least one D2D configuration parameter; transmitting a third message to the first base station, the third message indicating that there is data to transmit for the D2D communication session; and receiving a fourth message from the first base station that is transmitted according to the at least one D2D configuration parameter. transmitting a first message from a device to a first base station, the first message indicating that the device desires to initiate a device-to-device, D2D communication session, the first message comprising at least one group identification, ID code to the first base station that identifies a set of one or more devices engaging in the D2D communication session; receiving a second message from the first base station comprising at least one D2D configuration parameter; transmitting a third message to the first base station, the third message indicating that there is data to transmit for the D2D communication session; and receiving a fourth message from the first base station that is transmitted according to the at least one D2D configuration parameter.