mhurhangee/ep-ind-claims huggingface dataset:
A direct current circuit breaker used in a self-commutated direct current power transmission system, the direct current circuit breaker comprising a high-speed circuit breaker and a low-speed circuit breaker that are connected in series, wherein the high-speed circuit breaker includes a high-speed circuit breaker interruption unit to interrupt, when a fault has occurred on a direct current line, a DC current flowing through the direct current line, and a current limiting element connected in parallel with the high-speed circuit breaker interruption unit, the low-speed circuit breaker includes a low-speed circuit breaker interruption unit to interrupt, when a fault has occurred on the direct current line, the DC current flowing through the direct current line, a time period required for the high-speed circuit breaker interruption unit to interrupt the DC current is shorter than a time period required for the low-speed circuit breaker interruption unit to interrupt the DC current, and the low-speed circuit breaker interruption unit completes interruption of the DC current before a voltage applied to the current limiting element becomes lower than a minimum voltage allowable for the system, wherein an impedance of the current limiting element is set at a value that enables, after the high-speed circuit breaker interruption unit has interrupted the DC current, a voltage applied to the current limiting element to be maintained at the minimum voltage or greater than the minimum voltage needed for the system to continue operating. a high-speed circuit breaker interruption unit to interrupt, when a fault has occurred on a direct current line, a DC current flowing through the direct current line, and a current limiting element connected in parallel with the high-speed circuit breaker interruption unit,
A manual control device for a control and operating unit of a lifting work platform, work machine or construction machine, comprising: at least one actuating unit which comprises an actuation element comprising at least one magnetic position element; and an evaluating unit which comprises at least one magnetic field sensor unit, wherein the evaluating unit is configured to detect a position and/or movement of the actuation element in a plane of movement based on a sensor signal from the magnetic field sensor unit, wherein the actuation element is movable relative to the sensor unit along a further direction of movement perpendicularly to the plane of movement, and wherein the evaluating unit is configured to detect a movement of the actuation element along the further direction of movement based on a sensor signal from the magnetic field sensor unit, characterized in that the actuation element is switchable between a first position in which movement along the further direction of movement is allowed, and a second position in which movement along the further direction of movement is not possible, and the evaluating unit is configured to detect the first position or the second position of the actuation element based on a sensor signal from the magnetic field sensor unit. at least one actuating unit which comprises an actuation element comprising at least one magnetic position element; and an evaluating unit which comprises at least one magnetic field sensor unit, wherein the evaluating unit is configured to detect a position and/or movement of the actuation element in a plane of movement based on a sensor signal from the magnetic field sensor unit, wherein the actuation element is movable relative to the sensor unit along a further direction of movement perpendicularly to the plane of movement, and wherein the evaluating unit is configured to detect a movement of the actuation element along the further direction of movement based on a sensor signal from the magnetic field sensor unit, characterized in that the actuation element is switchable between a first position in which movement along the further direction of movement is allowed, and a second position in which movement along the further direction of movement is not possible, and the evaluating unit is configured to detect the first position or the second position of the actuation element based on a sensor signal from the magnetic field sensor unit.
A turbomolecular pump comprising a rotor which has a ring of vanes; and a stator disk (14, 16, 18) which comprises a support ring (50, 60), a ring of vanes connected thereto and two part disks (140, 142), wherein each part disk has a support ring section (52, 56, 62, 66; 62'; 62"; 62"', 66"'; 62"", 66"") and an abutment edge (54, 58, 64, 68, 70, 72, 74, 76; 64', 74'; 64", 74"; 64"', 74"') arranged thereat and the abutment edges of the part disks contact one another, characterized in that the abutment edges of the part disks are formed such that they abut one another in an intersecting manner at least sectionally so that an overlapping of the part disks is prevented.
A stylus device, comprising a processor to: receive and store a digital certificate corresponding to a user; and wirelessly transmit the digital certificate and digital ink data drawn with the stylus device from the stylus device to a touch device (114, 300) for user authentication on the touch device via a digitizer channel through a tip of the stylus device in response to detecting the tip of the stylus device is within a threshold hover range of the touch device which is enabled to authenticate the user at least based on the digital certificate and the digital ink data. receive and store a digital certificate corresponding to a user; and wirelessly transmit the digital certificate and digital ink data drawn with the stylus device from the stylus device to a touch device (114, 300) for user authentication on the touch device via a digitizer channel through a tip of the stylus device in response to detecting the tip of the stylus device is within a threshold hover range of the touch device which is enabled to authenticate the user at least based on the digital certificate and the digital ink data.
A control unit for electromechanical brake systems, comprising: a housing; and a frame plate, a braking energy storage module and a brake system control module, which are configured in the housing, wherein the braking energy storage module and the brake system control module are respectively arranged at two opposite sides of the frame plate. a housing; and a frame plate, a braking energy storage module and a brake system control module, which are configured in the housing, wherein the braking energy storage module and the brake system control module are respectively arranged at two opposite sides of the frame plate.
A container for culturing a biomembrane comprising: a bottom plate; a sidewall disposed on the bottom plate and surrounding and connecting the periphery of the bottom plate to form an inner space, wherein plural holes are defined in the upper surface of the sidewall, and plural pins corresponding to the holes are placed on the lower surface of the sidewall; and at least one protrusion located on the surface of the bottom plate, wherein a plurality of the containers are capable of being vertically stacked by insertion of the pins into the holes, wherein a vertical gap is formed between the stacked containers to ventilate the containers, wherein plural recesses are located on the outer surface of the sidewall; and wherein there are four protrusions (132, 133, 134) arranged in a facial pattern corresponding to eyes, mouth and nose for a human facial mask. a bottom plate; a sidewall disposed on the bottom plate and surrounding and connecting the periphery of the bottom plate to form an inner space, wherein plural holes are defined in the upper surface of the sidewall, and plural pins corresponding to the holes are placed on the lower surface of the sidewall; and at least one protrusion located on the surface of the bottom plate, wherein a plurality of the containers are capable of being vertically stacked by insertion of the pins into the holes, wherein a vertical gap is formed between the stacked containers to ventilate the containers, wherein plural recesses are located on the outer surface of the sidewall; and wherein there are four protrusions (132, 133, 134) arranged in a facial pattern corresponding to eyes, mouth and nose for a human facial mask.
A light source, comprising: a gas cell having a window (503/504); an optical fiber that is hollow and has an axial direction, an end thereof being enclosed within the gas cell and optically coupled to the window (503/504) via an optical path; characterized by a shield disposed around the end of the optical fiber providing a surface; wherein the surface of the shield extends past the end of the optical fiber in the axial direction towards the window (503/504) for limiting one or more of: the exchange of gas between the optical path and the remainder of the gas cell; ingress of plasma towards or into the optical fiber; flux of corrosive or contaminating species at the fiber's end; and plasma/radical induced deposition and polymerization. a gas cell having a window (503/504); an optical fiber that is hollow and has an axial direction, an end thereof being enclosed within the gas cell and optically coupled to the window (503/504) via an optical path; characterized by a shield disposed around the end of the optical fiber providing a surface; wherein the surface of the shield extends past the end of the optical fiber in the axial direction towards the window (503/504) for limiting one or more of: the exchange of gas between the optical path and the remainder of the gas cell; ingress of plasma towards or into the optical fiber; flux of corrosive or contaminating species at the fiber's end; and plasma/radical induced deposition and polymerization. the exchange of gas between the optical path and the remainder of the gas cell; ingress of plasma towards or into the optical fiber; flux of corrosive or contaminating species at the fiber's end; and plasma/radical induced deposition and polymerization.
A method performed by a user equipment, the method comprising: receiving at the user equipment using a receiver of a first technology, an emergency notification, the emergency notification providing information for a second technology capable of carrying an emergency message, wherein the information comprises, for each of a plurality of geographical areas, second information including the respective geographical area and at least one of frequency information, station or network identity information; storing the information; receiving a trigger using the receiver of the first technology; determining a current location of the user equipment upon receiving the trigger and determining a corresponding geographical area that encompasses the current location and activating (730, 732, 734, 760, 762) a receiver of the second technology using the second information for the corresponding geographical area to receive the emergency message. receiving at the user equipment using a receiver of a first technology, an emergency notification, the emergency notification providing information for a second technology capable of carrying an emergency message, wherein the information comprises, for each of a plurality of geographical areas, second information including the respective geographical area and at least one of frequency information, station or network identity information; storing the information; receiving a trigger using the receiver of the first technology; determining a current location of the user equipment upon receiving the trigger and determining a corresponding geographical area that encompasses the current location and activating (730, 732, 734, 760, 762) a receiver of the second technology using the second information for the corresponding geographical area to receive the emergency message.
A heated aerosol-generating article (1000, 2000) for use with an electrically-operated aerosol-generating device comprising a heating element, the aerosol-generating article comprising an aerosol-forming substrate (1020, 2020) radially encircled by a sheet of thermally-conductive material (1222, 2222), in which the aerosol-forming substrate comprises a gathered sheet of aerosol-forming material circumscribed by a wrapper, the wrapper being the sheet of thermally-conductive material which acts as a thermally-conducting flame barrier for spreading heat and mitigating against the risk of a user igniting the aerosol-forming substrate by applying a flame to the aerosol-generating article.
A tower system, comprising: a tower; an antenna mounted on the tower; a remote radio head mounted on the tower; a power supply; a power cable having a power supply conductor and a return conductor connected between the power supply and the remote radio head; and a shunt capacitance unit that is separate from the remote radio head that is electrically coupled between the power supply conductor and the return conductor of the power cable, characterized in that the shunt capacitance unit has a shunt capacitance that is selected based on lengths and diameters of the power supply conductor and the return conductor and; the shunt capacitance is configured to reduce a voltage drop at the remote radio head due to a current spike in a power signal carried by the power cable, and wherein the shunt capacitance unit is connected at the input of the remote radio head or within a breakout enclosure that is positioned adjacent the remote radio head. a tower; an antenna mounted on the tower; a remote radio head mounted on the tower; a power supply; a power cable having a power supply conductor and a return conductor connected between the power supply and the remote radio head; and a shunt capacitance unit that is separate from the remote radio head that is electrically coupled between the power supply conductor and the return conductor of the power cable, characterized in that the shunt capacitance unit has a shunt capacitance that is selected based on lengths and diameters of the power supply conductor and the return conductor and; the shunt capacitance is configured to reduce a voltage drop at the remote radio head due to a current spike in a power signal carried by the power cable, and wherein the shunt capacitance unit is connected at the input of the remote radio head or within a breakout enclosure that is positioned adjacent the remote radio head.
Package in the form of a bottle having damping and/or cushioning means which acts on goods for packaging that may be placed in its fill volume and which are disposed between the goods and the wall of the bottle, the damping and/or cushioning means being embodied to be substantially automatically aligned and/or unfolded or compressed as the fill volume is filled with goods, and to contract or expand and/or unfold as goods are removed, at least until a certain proportion has been removed, characterised in that the damping and/or cushioning means is constructed as an umbrella-shaped spring element that rests in particular with the centre of its convexity on the base of the bottle.
A process for preparing an aqueous suspension comprising precipitated calcium carbonate, the process comprising the steps of: a) providing at least one calcium source being essentially insoluble in water; b) providing at least one water-soluble manganese source; c) providing at least one carbonate source, and d) carbonating the at least one calcium source of step a) with the at least one carbonate source of step c) in the presence of the at least one water-soluble manganese source of step b) to convert the calcium source at least partially into precipitated calcium carbonate, wherein the at least one water-soluble manganese source of step b) is present in carbonating step d) in an amount from 100 ppm to 1000 ppm (d/d), based on the total dry weight of the at least one calcium source of step a). a) providing at least one calcium source being essentially insoluble in water; b) providing at least one water-soluble manganese source; c) providing at least one carbonate source, and d) carbonating the at least one calcium source of step a) with the at least one carbonate source of step c) in the presence of the at least one water-soluble manganese source of step b) to convert the calcium source at least partially into precipitated calcium carbonate,
A dialysis solution having at least one osmotic agent, characterised in that the osmotic agent is starch alkylphosphonate and in particular starch propylphosphonate and/or starch ethylphosphonate
An inhibitor of IFN-gamma or TNF-α for use in a method for treatment or therapy of delayed fracture healing, wherein said inhibitor a. is a ligand to IFN-gamma or TNF-α capable to selectively bind to IFN-gamma or TNF-α with a dissociation constant of 10 -8 mol/l or smaller, and b. is capable of abrogating or suppressing the biological effects of IFN-gamma or TNF-α. a. is a ligand to IFN-gamma or TNF-α capable to selectively bind to IFN-gamma or TNF-α with a dissociation constant of 10 -8 mol/l or smaller, and b. is capable of abrogating or suppressing the biological effects of IFN-gamma or TNF-α.
Method for predicting at least one fitness value of a protein, the method being implemented on a computer and characterized by including the following steps: - calculating Q elementary numerical sequences, Q being an integer greater than or equal to 2, each elementary numerical sequence depending on a respective encoding of the amino acid sequence of the protein according to a protein database, - determining an extended numerical sequence, Ext_SEQ, by concatenating the Q elementary numerical sequences, for each fitness: - comparing the determined extended numerical sequence, Ext_SEQ, with reference extended numerical sequences of a predetermined database, said database containing reference extended numerical sequences for different values of said fitness, - predicting a value of said fitness according to the comparison step. - calculating Q elementary numerical sequences, Q being an integer greater than or equal to 2, each elementary numerical sequence depending on a respective encoding of the amino acid sequence of the protein according to a protein database, - determining an extended numerical sequence, Ext_SEQ, by concatenating the Q elementary numerical sequences, - comparing the determined extended numerical sequence, Ext_SEQ, with reference extended numerical sequences of a predetermined database, said database containing reference extended numerical sequences for different values of said fitness, - predicting a value of said fitness according to the comparison step.
A compound of the formula wherein L 1 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; L 2 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; L 3 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; R 1 represents hydrogen, acyl, carbamoyl, alkylaminocarbonyl, dialkylaminocarbonyl, arylcarbonyl, cycloalkylcarbonyl or heterocyclylcarbonyl; R 2 represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 3 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 4 represents optionally substituted alkandiyl, alkendiyl, alkyndiyl, cycloalkyldiyl, alkylcycloalkyldiyl, alkylcycloalkylalkyldiyl, aryldiyl, alkylaryldiyl, alkylarylalkyldiyl; R 5 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 6 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; provided that at least two of the substituents R 2, R 3, R 5 and R 6 are aralkyl or heteroaralkyl; wherein at least one of R 2 or R 3 is a biphenyl-Ci-alkyl optionally substituted with tert-butyl; n is 0, 1, 2, 3 or 4; and m is 0 or 1; Q is -NH 2, -NH-C -NH 2 or -NH-C(N-alkyl)-NH-alkyl; X is NH, O or S; Z 1 is -CH 2 -; Z 2 is a direct bond, alkandiyl, cycloalkyldiyl or aryldiyl; or a salt and solvate of such compound. L 1 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; L 2 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; L 3 represents -CO-, alkandiyl, -alkyl-CO- or -CO-alkyl-; R 1 represents hydrogen, acyl, carbamoyl, alkylaminocarbonyl, dialkylaminocarbonyl, arylcarbonyl, cycloalkylcarbonyl or heterocyclylcarbonyl; R 2 represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 3 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 4 represents optionally substituted alkandiyl, alkendiyl, alkyndiyl, cycloalkyldiyl, alkylcycloalkyldiyl, alkylcycloalkylalkyldiyl, aryldiyl, alkylaryldiyl, alkylarylalkyldiyl; R 5 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; R 6 represents hydrogen, or represents optionally substituted alkyl, aralkyl or heteroaralkyl; provided that at least two of the substituents R 2, R 3, R 5 and R 6 are aralkyl or heteroaralkyl; wherein at least one of R 2 or R 3 is a biphenyl-Ci-alkyl optionally substituted with tert-butyl; n is 0, 1, 2, 3 or 4; and m is 0 or 1; Q is -NH 2, -NH-C -NH 2 or -NH-C(N-alkyl)-NH-alkyl; X is NH, O or S; Z 1 is -CH 2 -; Z 2 is a direct bond, alkandiyl, cycloalkyldiyl or aryldiyl; or a salt and solvate of such compound.
A light emitting diode, LED, filament arrangement (100, 400, 510), comprising an elongated LED filament comprising an array of a plurality of light emitting diodes (110, 410), LEDs, and a carrier arranged to support the plurality of LEDs, a heat sink, wherein the LED filament is arranged upon the heat sink, and wherein the heat sink is configured to dissipate heat from the plurality of LEDs during operation, wherein the LED filament comprises a center axis, A, and elongates in a meandering shape in a first plane, P, wherein at least one of the LED filament and the heat sink is convex-shaped with respect to the center axis, A, along at least a first segment (120, 320) of the LED filament, at least one of the LED filament and the heat sink is concave-shaped with respect to the center axis, A, along at least a second segment (130, 330) of the LED filament, and wherein the at least one first segment and the at least one second segment constitute linear portions of the LED filament which are connected by at least one curved portion of the LED filament. an elongated LED filament comprising an array of a plurality of light emitting diodes (110, 410), LEDs, and a carrier arranged to support the plurality of LEDs, an array of a plurality of light emitting diodes (110, 410), LEDs, and a carrier arranged to support the plurality of LEDs, a heat sink, wherein the LED filament is arranged upon the heat sink, and wherein the heat sink is configured to dissipate heat from the plurality of LEDs during operation, wherein the LED filament comprises a center axis, A, and elongates in a meandering shape in a first plane, P, wherein at least one of the LED filament and the heat sink is convex-shaped with respect to the center axis, A, along at least a first segment (120, 320) of the LED filament, at least one of the LED filament and the heat sink is concave-shaped with respect to the center axis, A, along at least a second segment (130, 330) of the LED filament, and wherein the at least one first segment and the at least one second segment constitute linear portions of the LED filament which are connected by at least one curved portion of the LED filament.