mhurhangee/ep-ind-claims huggingface dataset:
A lighting circuit for producing light, the lighting circuit comprising: - a first circuit comprising an element with a diode function, a capacitor, a first light emitting diode arrangement and a first switch, the element with the diode function being coupled serially to parallel branches, a first branch of the parallel branches comprising the capacitor, and a second branch of the parallel branches comprising the first light emitting diode arrangement and the first switch coupled serially to each other; - a second circuit comprising a second switch, the second switch being coupled in parallel to the first circuit; and wherein the lighting circuit further comprises a fourth circuit, wherein the fourth circuit comprises a second light emitting diode arrangement and a third switch, characterised in that the second light emitting diode arrangement and the third switch are coupled in parallel, and wherein the second circuit and the fourth circuit are coupled in series. - a first circuit comprising an element with a diode function, a capacitor, a first light emitting diode arrangement and a first switch, the element with the diode function being coupled serially to parallel branches, a first branch of the parallel branches comprising the capacitor, and a second branch of the parallel branches comprising the first light emitting diode arrangement and the first switch coupled serially to each other; - a second circuit comprising a second switch, the second switch being coupled in parallel to the first circuit; and
A wireless power-supplying system comprising: a power-supplying coil disposed on a ground side; a power-receiving coil; and a movable body, in which the power receiving coil is mounted on the movable body and is configured to wirelessly receive power supplied from the power-supplying coil, characterized in that the wireless power-supplying system further comprises at least one recovery coil provided in the vicinity of a space between the power-supplying coil and the power-receiving coil such that a wound face thereof intersects leakage flux occurring when the power is supplied from the power-supplying coil to the power-receiving coil, and a load to which the recovery coil is connected. a power-supplying coil disposed on a ground side; a power-receiving coil; and a movable body, in which the power receiving coil is mounted on the movable body and is configured to wirelessly receive power supplied from the power-supplying coil, characterized in that the wireless power-supplying system further comprises at least one recovery coil provided in the vicinity of a space between the power-supplying coil and the power-receiving coil such that a wound face thereof intersects leakage flux occurring when the power is supplied from the power-supplying coil to the power-receiving coil, and a load to which the recovery coil is connected.
An optoelectronic module housing comprising a first receptacle (110, 210, 310, 410) configured to receive a first optical assembly including a laser assembly, a second receptacle (120, 220, 320) configured to receive a second optical assembly including a photodiode assembly, and a third receptacle (130, 230, 330) configured to receive an optical fibre (170, 290, 390) or fibre lens (291, 391) characterized by: a first angled pocket receptacle (350, 360) of the housing including a first surface, the first angled pocket receptacle configured to have one or more optical elements placed therein, including a first selective filter located at the first surface; a second angled pocket receptacle (350, 360) of the housing including a second surface, the second angled pocket receptacle configured to have one or more optical elements placed therein, including a second selective filter located at the second surface; and at least one cross talk suppression cut (305, 306) of the housing proximate the first angled pocket receptacle (350, 360) and positioned to receive optical signals that originate from the laser assembly and are reflected from the first selective filter.
A notebook computer, tablet computer or cellular telephone, comprising: a display; and a camera including lens structures and an image sensor that receives image light through the lens structures, wherein the lens structures comprise a first portion and a second portion; the display has layers (52,60) comprising at least one of a colour filter layer, a thin-film transistor layer and a polarizer layer; and at least a portion of one of the colour filter layer and thin-film transistor layer of the display is interposed between the first and second portions of the lens structures and characterised in that: said portion is a transparent material having a concave or a convex surface that interacts with the first portion and the second portion of the lens structures to help focus image light for the camera in order to minimize the height of the second portion of lens structures beneath the display. a display; and a camera including lens structures and an image sensor that receives image light through the lens structures, wherein the lens structures comprise a first portion and a second portion; the display has layers (52,60) comprising at least one of a colour filter layer, a thin-film transistor layer and a polarizer layer; and at least a portion of one of the colour filter layer and thin-film transistor layer of the display is interposed between the first and second portions of the lens structures and characterised in that: said portion is a transparent material having a concave or a convex surface that interacts with the first portion and the second portion of the lens structures to help focus image light for the camera in order to minimize the height of the second portion of lens structures beneath the display. said portion is a transparent material having a concave or a convex surface that interacts with the first portion and the second portion of the lens structures to help focus image light for the camera in order to minimize the height of the second portion of lens structures beneath the display.
A method of tamping a track by immersing a hand tamper into ballast, characterized in that, prior to the immersion into the ballast, the hand tamper is detachably connected to an anchor element, fixed to the track and lying opposite with regard to a tamping motion, by means of a fixing member fastened to a tamper section situated between a drive motor and a tamping blade.
A method for enriching cancer nucleic acid, comprising: (a) obtaining cell-free circulating sample nucleic acid from a biological sample comprising cancer cells from a subject, which sample nucleic acid comprises a first histone-associated nucleic acid species and a second histone-associated nucleic acid species; and (b) separating some or substantially all of the first histone-associated nucleic acid species from the second histone-associated nucleic acid species, thereby generating a separation product enriched for the second histone-associated nucleic acid species, wherein cancer nucleic acid in the separation product is enriched relative to cancer nucleic acid in the sample nucleic acid, wherein separating some or substantially all of the first histone-associated nucleic acid species from the second histone-associated nucleic acid species comprises: i) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the first histone-associated nucleic acid species, wherein the histone is selected from the group consisting of H1.1, H1.3, and H1.5; and/or ii) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the second histone-associated nucleic acid species, wherein the histone is H1.0. (a) obtaining cell-free circulating sample nucleic acid from a biological sample comprising cancer cells from a subject, which sample nucleic acid comprises a first histone-associated nucleic acid species and a second histone-associated nucleic acid species; and (b) separating some or substantially all of the first histone-associated nucleic acid species from the second histone-associated nucleic acid species, thereby generating a separation product enriched for the second histone-associated nucleic acid species, wherein cancer nucleic acid in the separation product is enriched relative to cancer nucleic acid in the sample nucleic acid, wherein separating some or substantially all of the first histone-associated nucleic acid species from the second histone-associated nucleic acid species comprises: i) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the first histone-associated nucleic acid species, wherein the histone is selected from the group consisting of H1.1, H1.3, and H1.5; and/or ii) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the second histone-associated nucleic acid species, wherein the histone is H1.0. i) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the first histone-associated nucleic acid species, wherein the histone is selected from the group consisting of H1.1, H1.3, and H1.5; and/or ii) contacting the sample nucleic acid with an agent that specifically binds to a histone associated with the second histone-associated nucleic acid species, wherein the histone is H1.0.
A negative electrode, comprising: a negative electrode current collector; a first active material layer close to the negative electrode current collector, the first active material layer comprising a first active material; and a second active material layer disposed on a surface of the first active material layer away from the negative electrode current collector, the second active material layer comprising a second active material; characterized in that the first active material and the second active material are independently oval-like particles with through holes and/or blind holes, and the first active material has an average pore size greater than that of the second active material; wherein the first active material has an average pore size from 70 to 140 nm, and wherein the second active material has an average pore size from 10 to 30 nm, measured according to the methods as described in the description; wherein a ratio of short diameter to long diameter of the first active material is from 0.5 to less than 1, measured according to the methods as described in the description, and a ratio of short diameter to long diameter of the second active material is from 0.3 to less than 1, measured according to the methods as described in the description; wherein the second active material and the first active material independently comprise one or more of soft carbon, hard carbon, artificial graphite, natural graphite, silicon, silicon oxides, silicon-carbon composites, lithium titanate, and metals capable of forming alloys with lithium. a negative electrode current collector; a first active material layer close to the negative electrode current collector, the first active material layer comprising a first active material; and a second active material layer disposed on a surface of the first active material layer away from the negative electrode current collector, the second active material layer comprising a second active material; characterized in that the first active material and the second active material are independently oval-like particles with through holes and/or blind holes, and the first active material has an average pore size greater than that of the second active material; wherein the first active material has an average pore size from 70 to 140 nm, and wherein the second active material has an average pore size from 10 to 30 nm, measured according to the methods as described in the description; wherein a ratio of short diameter to long diameter of the first active material is from 0.5 to less than 1, measured according to the methods as described in the description, and a ratio of short diameter to long diameter of the second active material is from 0.3 to less than 1, measured according to the methods as described in the description; wherein the second active material and the first active material independently comprise one or more of soft carbon, hard carbon, artificial graphite, natural graphite, silicon, silicon oxides, silicon-carbon composites, lithium titanate, and metals capable of forming alloys with lithium.
Method for authenticating and enabling a charging process of an electric or hybrid vehicle at a charging station, the electric or hybrid vehicle transmitting an identifier to the charging station via a charging cable, the charging station receiving the identifier and checking whether there is an authorization for the identifier to use the charging station in a list of the charging station, the charging process being started if the authorization is present, characterized in that the electric or hybrid vehicle transmits an activation code to the charging station via the charging cable for the first entry of the identifier of the electric or hybrid vehicle in the list, the electric or hybrid vehicle transmitting an identifier to the charging station after confirmation of the activation code by the charging station, which identifier is then received by the charging station and stored in the list, at least individual identifiers being assigned usage restrictions in the list of authorized identifiers.
Method for production of graphite bodies, which method is characterized in that carbon bodies are formed from a mixture of electric calcined coke particles calcined at a temperature between 1200 and 3000°C and a binder where the coke particles have sulphur- and nitrogen content varying between 0 and 1.5% by weight and where the coke particles have an average sulphur content less than 0.6% by weight and a nitrogen content of less than 0.6% by weight, baking of the carbon bodies at a temperature between 700 and 1400°C and graphitizing of the baked carbon bodies at a temperature within the range 2300°C to 3300°C.
A spring-based seat diaphragm for an aircraft seat, comprising: at least one auxiliary spreader, the at least one auxiliary spreader configured to be transversely coupled to a first structural beam and a second structural beam, the at least one auxiliary spreader configured to be positioned between a first primary spreader and a second primary spreader, the first primary spreader and the second primary spreader configured to be parallel to the at least one auxiliary spreader, the first primary spreader and the second primary spreader configured to be being transversely coupled to the first structural beam and the second structural beam; and at least one spring, the at least one spring being proximate to the at least one auxiliary spreader, the at least one spring being parallel to the at least one auxiliary spreader, the at least one spring configured to be positioned being between the first primary spreader and the second primary spreader, the at least one spring including a plurality of bends configured to distribute user weight applied to a cushion installed on the aircraft seat over the spring-based seat diaphragm; a first set of bars and a second set of bars, the first set of bars and the second set of bars coupled to one or more portions of the at least one auxiliary spreader, the first set of bars and the second set of bars being positioned between the first primary spreader and the second primary spreader, the first set of bars being transversely coupled to a first end of the at least one auxiliary spreader, the second set of bars being transversely coupled to a second end of the at least one auxiliary spreader, the first set of bars and the second set of bars being configured to secure the at least one spring within the spring-based seat diaphragm, the spring-based seat diaphragm being configured to support an aft portion of the cushion, the first structural beam being configured to support a forward portion of the cushion. at least one auxiliary spreader, the at least one auxiliary spreader configured to be transversely coupled to a first structural beam and a second structural beam, the at least one auxiliary spreader configured to be positioned between a first primary spreader and a second primary spreader, the first primary spreader and the second primary spreader configured to be parallel to the at least one auxiliary spreader, the first primary spreader and the second primary spreader configured to be being transversely coupled to the first structural beam and the second structural beam; and at least one spring, the at least one spring being proximate to the at least one auxiliary spreader, the at least one spring being parallel to the at least one auxiliary spreader, the at least one spring configured to be positioned being between the first primary spreader and the second primary spreader, the at least one spring including a plurality of bends configured to distribute user weight applied to a cushion installed on the aircraft seat over the spring-based seat diaphragm;
An apparatus for depositing flowable material, comprising: a. a chamber housing that forms a shell having an internal contour, an input port for receiving the flowable material and an output port for depositing the flowable material, b. a rotary valve shaft within the shell adjacent the output port, c. a piston shaft within the shell between the input port and the rotary valve shaft and rotatable in synchronization with the rotary valve shaft, the piston shaft having at least one piston plate that radiates to the internal contour of the shell, such that the piston shaft and the rotary valve shaft form with the shell a volumetric pocket to receive the flowable material from the input port, and d. at least one annular spacer that radiates from the piston shaft to the internal contour of the shell to divide the volumetric pocket into at least two volumetric pockets, wherein the rotary valve shaft has a respective inflow port and outflow port for each of the at least two volumetric pockets, wherein the at least one annular spacer has an arcuate notch configured to receive for rotation therewithin the rotary valve shaft, wherein the internal contour of the shell circumscribes the at least one annular spacer and the rotary valve shaft so as to allow rotation of the piston shaft and the rotary valve shaft within the shell but resist flow of flowable material past the at least one annular spacer, the rotary valve shaft being rotatable within the shell between a deposition position wherein each outflow port is in alignment with the output port and an intake position wherein each inflow port is in alignment with the input port, wherein the apparatus is configured to, when the rotary valve shaft is in the intake position, rotate the piston shaft to expand the volumetric pocket to draw in flowable material from the input port through the inflow port and the outflow port, and when the rotary valve shaft is in the deposition position, rotate the piston shaft to compress the volumetric pocket to urge flowable material from the volumetric pocket through the inflow port and the outflow port to the output port. a. a chamber housing that forms a shell having an internal contour, an input port for receiving the flowable material and an output port for depositing the flowable material, b. a rotary valve shaft within the shell adjacent the output port, c. a piston shaft within the shell between the input port and the rotary valve shaft and rotatable in synchronization with the rotary valve shaft, the piston shaft having at least one piston plate that radiates to the internal contour of the shell, such that the piston shaft and the rotary valve shaft form with the shell a volumetric pocket to receive the flowable material from the input port, and d. at least one annular spacer that radiates from the piston shaft to the internal contour of the shell to divide the volumetric pocket into at least two volumetric pockets,
A method for determining the content of hydrocarbons in purge gas of a fuel tank system of a combustion engine, which comprises - a fuel tank, - a fuel vapor filter, which is fluidically connected to an ambient opening, - a vent line leading from the fuel tank to the fuel vapor filter, - a purge gas line leading from the fuel vapor filter to the fresh gas line of the combustion engine, - a regulating valve integrated into the purge gas line, - a pressure sensor integrated into the purge gas line, and - a compressor integrated into the purge gas line, wherein, during the operation of the compressor, at least three pressure measurements are carried out by means of the pressure sensor over a defined time period, wherein the loading of the purge gas with hydrocarbons is qualitatively determined at the end of the time period based on the pressure values thereby determined, wherein a pressure gradient and/or a pressure difference to one of the other pressure measurements and/or a pressure gradient difference is determined for each of the pressure measurements, said pressure gradients and/or pressure differences and/or pressure gradient differences being analyzed with regard to at least one value descriptive thereof which is characteristic of specific types of hydrocarbons, in order to qualitatively determine the loading of the purge gas with the hydrocarbons. - a fuel tank, - a fuel vapor filter, which is fluidically connected to an ambient opening, - a vent line leading from the fuel tank to the fuel vapor filter, - a purge gas line leading from the fuel vapor filter to the fresh gas line of the combustion engine, - a regulating valve integrated into the purge gas line, - a pressure sensor integrated into the purge gas line, and - a compressor integrated into the purge gas line,
Device comprising a mechanism for bringing a component from an open state to a closed state and conversely by pressing on the component, wherein the device comprises a receptacle, a component receiver and a locking part, which is displaceably mounted in the receptacle and in an open state of the component protrudes by a first width (W 1) from the receptacle and in a closed state protrudes by a second width (W 2) from the receptacle and is received in the component receiver, wherein the second width (W 2) is greater than the first width (W 1), wherein the locking part is mounted in the receptacle against the force of a spring device and the locking part has a heart cam in which a guide element is displaceably mounted, the guide element being displaceable transversely to the displacement direction of the locking part, and wherein the locking part has a chamfer at the side remote from the receptacle and the component receiver has a corresponding chamfer, which chamfers in the closed state of the component bear against and are displaceable relative to one another, wherein a first edge of the component receiver extends at an offset with respect to a second edge of the component receiver.
A solid state lighting device comprising: at least one solid state emitter; and a stamped heatsink (160, 260, 360, 460) in thermal communication with the at least one solid state emitter, wherein the heatsink (160, 260, 360, 460) has a base portion (162, 262, 362, 462) and a plurality of spatially segregated sidewall portions (165A-165N, 265A-265N, 365A-365N, 465A-465N) projecting outward from the base portion (162, 262, 362, 462), with the the plurality of spatially segregated sidewall portions (165A-165N, 265A-265N, 365A-365N, 465A-465N) extending in a direction non-parallel to a plane definable through a surface of the base portion (162, 262, 362, 462). at least one solid state emitter; and a stamped heatsink (160, 260, 360, 460) in thermal communication with the at least one solid state emitter, wherein the heatsink (160, 260, 360, 460) has a base portion (162, 262, 362, 462) and a plurality of spatially segregated sidewall portions (165A-165N, 265A-265N, 365A-365N, 465A-465N) projecting outward from the base portion (162, 262, 362, 462), with the the plurality of spatially segregated sidewall portions (165A-165N, 265A-265N, 365A-365N, 465A-465N) extending in a direction non-parallel to a plane definable through a surface of the base portion (162, 262, 362, 462).