mhurhangee/ep-ind-claims huggingface dataset:
A system (10. 70. 97) for actuating an engine valve to decompress an engine cylinder or provide engine bleeder braking, comprising: a first vertically moveable member disposed above an engine valve, said vertically moveable member having an inner piston bore extending horizontally into the vertically moveable member; means (130, 172) for moving the vertically moveable member; an inner piston (150, 350, 420) provided in the horizontally extending inner piston bore, said inner piston having a circumference and a recessed surface (152, 352, 354, 442, 444); means (156, 158, 170) for moving the inner piston relative to the inner piston bore; and a second vertically moveable member configured for contacting either the circumference of the inner piston or the recessed surface of the inner piston, wherein the circumference of the inner piston is configured such that contact between the second vertically moveable member and the circumference of the inner piston prevents the engine valve from closing and wherein the recessed surface of the inner piston is configured such that contact between the second vertically moveable member and the recessed surface permits opening and closing of the engine valve. a first vertically moveable member disposed above an engine valve, said vertically moveable member having an inner piston bore extending horizontally into the vertically moveable member; means (130, 172) for moving the vertically moveable member; an inner piston (150, 350, 420) provided in the horizontally extending inner piston bore, said inner piston having a circumference and a recessed surface (152, 352, 354, 442, 444); means (156, 158, 170) for moving the inner piston relative to the inner piston bore; and a second vertically moveable member configured for contacting either the circumference of the inner piston or the recessed surface of the inner piston, wherein the circumference of the inner piston is configured such that contact between the second vertically moveable member and the circumference of the inner piston prevents the engine valve from closing and wherein the recessed surface of the inner piston is configured such that contact between the second vertically moveable member and the recessed surface permits opening and closing of the engine valve.
Ignition device for an internal combustion engine, in particular for a hydrogen-operated internal combustion engine, having a primary circuit (2.1) and a secondary circuit (2.2), wherein - the primary circuit (2.1) has a primary coil, wherein - the secondary circuit (2.2) has a secondary coil inductively coupled to the primary coil, a diode, and a high-voltage terminal for connection to a spark plug, characterized in that - the diode in the secondary circuit (2.2) is arranged in an orientation in which the current flow to the spark plug is prevented in order to suppress the switch-on spark, - a parallel path is formed electrically in parallel with the diode of the secondary circuit (2.2), in which parallel path an ohmic load resistor is arranged and by means of which parallel path residual energy, in particular residual voltage, which remains in the secondary circuit (2.2) following discharge of the ignition device, can be extinguished, by virtue of the residual energy in the secondary circuit (2.2) being able to be guided past the diode, bypassing the diode, and in that - the ohmic load resistor of the parallel path has an electric resistance that is greater than 1 MOhm, which is in particular in the range between 10 MOhm and 100 MOhm. - the primary circuit (2.1) has a primary coil, wherein - the secondary circuit (2.2) has a secondary coil inductively coupled to the primary coil, a diode, and a high-voltage terminal for connection to a spark plug, - the diode in the secondary circuit (2.2) is arranged in an orientation in which the current flow to the spark plug is prevented in order to suppress the switch-on spark, - a parallel path is formed electrically in parallel with the diode of the secondary circuit (2.2), in which parallel path an ohmic load resistor is arranged and by means of which parallel path residual energy, in particular residual voltage, which remains in the secondary circuit (2.2) following discharge of the ignition device, can be extinguished, by virtue of the residual energy in the secondary circuit (2.2) being able to be guided past the diode, bypassing the diode, and in that - the ohmic load resistor of the parallel path has an electric resistance that is greater than 1 MOhm, which is in particular in the range between 10 MOhm and 100 MOhm.
A method of transmitting uplink control information of a user equipment (12, 900) in a physical uplink shared channel, PUSCH, over which uplink control information and data can be transmitted in an uplink subframe comprising the PUSCH and a physical uplink control channel, PUCCH, over which only uplink control information can be transmitted, the method comprising: generating the data; generating the uplink control information repeatedly as many times as a number of uplink data transmission layers of the data; applying a precoding matrix to the data and the repeatedly generated uplink control information; multiplexing the data and the repeatedly generated uplink control information in the PUSCH; and transmitting (S610, S710) the data and the repeatedly generated uplink control information in the uplink subframe; wherein the uplink subframe comprises a plurality of single carrier- frequency division multiple access, SC-FDMA, symbols in a time domain and a reference signal is allocated to two SC-FDMA symbols among the plurality of SC-FDMA symbols in the PUSCH,and wherein when the repeatedly generated uplink control information comprises an ACK/NACK, acknowledgement/not-acknowledgement, and an RI, rank indicator, the ACK/NACK is allocated to SC-FDMA symbols which are adjacent to the two SC-FDMA symbols to which the reference signal is allocated and the RI is allocated to SC-FDMA symbols which are adjacent to the SC-FDMA symbols where the ACK/NACK is allocated. generating the data; generating the uplink control information repeatedly as many times as a number of uplink data transmission layers of the data; applying a precoding matrix to the data and the repeatedly generated uplink control information; multiplexing the data and the repeatedly generated uplink control information in the PUSCH; and transmitting (S610, S710) the data and the repeatedly generated uplink control information in the uplink subframe; wherein the uplink subframe comprises a plurality of single carrier- frequency division multiple access, SC-FDMA, symbols in a time domain and a reference signal is allocated to two SC-FDMA symbols among the plurality of SC-FDMA symbols in the PUSCH,and wherein when the repeatedly generated uplink control information comprises an ACK/NACK, acknowledgement/not-acknowledgement, and an RI, rank indicator, the ACK/NACK is allocated to SC-FDMA symbols which are adjacent to the two SC-FDMA symbols to which the reference signal is allocated and the RI is allocated to SC-FDMA symbols which are adjacent to the SC-FDMA symbols where the ACK/NACK is allocated.
A microfluidic photoionization detector comprising: a substrate and an electrically conductive layer comprising an electrically conductive material, disposed on the substrate; a microfluidic channel (30; 60) formed in and having two walls defined by the electrically conductive layer, the microfluidic channel (30; 60) having an inlet (32; 62) and an outlet, wherein the microfluidic channel (30; 60) defines a serpentine pattern having a flow path with at least two 180° changes in direction; a first electrode region and a distinct second electrode region defined by the electrically conductive layer, wherein the first electrode region is separated from the second electrode region by the microfluidic channel (30; 60); and a source of UV light having a transparent window that is disposed adjacent to at least a portion of the microfluidic channel (30; 60), wherein the source of UV light is configured to direct photons to the microfluidic channel (30; 60). a substrate and an electrically conductive layer comprising an electrically conductive material, disposed on the substrate; a microfluidic channel (30; 60) formed in and having two walls defined by the electrically conductive layer, the microfluidic channel (30; 60) having an inlet (32; 62) and an outlet, wherein the microfluidic channel (30; 60) defines a serpentine pattern having a flow path with at least two 180° changes in direction; a first electrode region and a distinct second electrode region defined by the electrically conductive layer, wherein the first electrode region is separated from the second electrode region by the microfluidic channel (30; 60); and a source of UV light having a transparent window that is disposed adjacent to at least a portion of the microfluidic channel (30; 60), wherein the source of UV light is configured to direct photons to the microfluidic channel (30; 60).
A method of manufacturing a packaging and applicator device for applying a composition to the eyelashes and/or the eyebrows, the device including:. a container comprising a composition to be applied to the eyelashes and/or the eyebrows; and. a molded applicator member comprising: • a core having a longitudinal axis; and. rows of teeth that are carried by the core, preferably at least five rows, two teeth belonging to two consecutive rows not being parallel, the outside surface of at least one segment of the core including only one toothless portion, or only two toothless portions that are situated substantially opposite each other, the or each toothless portion being of angular extent (δ) lying in the range 75° to 110° around said longitudinal axis, characterized in the method comprising at least a step of molding the core and the teeth in a mold that is formed by assembling together a plurality of shells (C 1,..., C n) of which at least two consecutive shells having facing faces without cavities for forming teeth.. a container comprising a composition to be applied to the eyelashes and/or the eyebrows; and. a molded applicator member comprising: • a core having a longitudinal axis; and. rows of teeth that are carried by the core, preferably at least five rows, two teeth belonging to two consecutive rows not being parallel, the outside surface of at least one segment of the core including only one toothless portion, or only two toothless portions that are situated substantially opposite each other, the or each toothless portion being of angular extent (δ) lying in the range 75° to 110° around said longitudinal axis, • a core having a longitudinal axis; and. rows of teeth that are carried by the core, preferably at least five rows, two teeth belonging to two consecutive rows not being parallel, the outside surface of at least one segment of the core including only one toothless portion, or only two toothless portions that are situated substantially opposite each other, the or each toothless portion being of angular extent (δ) lying in the range 75° to 110° around said longitudinal axis,
A variable flow rate ejector comprising: a primary inlet configured to be connected to a first fluid source at a first pressure, the primary inlet opening into a first inlet chamber; a primary nozzle defining an opening, the primary nozzle connected to receive the first fluid from the first inlet chamber and transmit a flow of the first fluid through the primary nozzle opening; a needle disposed within the primary nozzle opening, the needle axially movable in order to vary an area of primary nozzle opening, the primary nozzle opening and the needle sized to cause the first fluid to flow through the primary nozzle at supersonic speed when the first fluid source connected to the primary inlet at the first pressure; a secondary inlet configured to be connected to a second fluid source at a second pressure lower than the first pressure, the secondary inlet opening into a second inlet chamber positioned outside the primary nozzle opening, the second inlet chamber disposed so that when the second fluid source is connected to the secondary inlet at the second pressure, at least a portion of the second fluid is entrained in the flow of the first fluid from the primary nozzle, thereby creating a flow of the first and second fluids as a combined fluid; a secondary nozzle defining another opening downstream of the primary nozzle opening, the secondary nozzle opening sized to cause subsonic flow of the combined fluid through the secondary nozzle opening, characterized in that an axial distance between an outermost edge of the primary nozzle opening to a narrowest portion of the secondary nozzle opening is less than a diameter of the secondary nozzle opening. a primary inlet configured to be connected to a first fluid source at a first pressure, the primary inlet opening into a first inlet chamber; a primary nozzle defining an opening, the primary nozzle connected to receive the first fluid from the first inlet chamber and transmit a flow of the first fluid through the primary nozzle opening; a needle disposed within the primary nozzle opening, the needle axially movable in order to vary an area of primary nozzle opening, the primary nozzle opening and the needle sized to cause the first fluid to flow through the primary nozzle at supersonic speed when the first fluid source connected to the primary inlet at the first pressure; a secondary inlet configured to be connected to a second fluid source at a second pressure lower than the first pressure, the secondary inlet opening into a second inlet chamber positioned outside the primary nozzle opening, the second inlet chamber disposed so that when the second fluid source is connected to the secondary inlet at the second pressure, at least a portion of the second fluid is entrained in the flow of the first fluid from the primary nozzle, thereby creating a flow of the first and second fluids as a combined fluid; a secondary nozzle defining another opening downstream of the primary nozzle opening, the secondary nozzle opening sized to cause subsonic flow of the combined fluid through the secondary nozzle opening,
Method wherein, when damage to a parked motor vehicle is detected, at at least two communication modules of the motor vehicle determine by means of triangulation the positions of mobile communication devices (21, 26) located in the vicinity of the motor vehicle, capture their MAC addresses and follow their trajectories; and wherein the mobile communication device of the perpetrator of the damage is determined; and wherein, using a camera of the parked motor vehicle, an image recording or video recording in the direction of the current position of the mobile communication device of the perpetrator is generated.
A device for the non-destructive probing of a sample by means of electromagnetic wave reflection, said device comprising a frame, an antenna structure (20, 22), a driver (10, 12) electrically connected to said antenna structure (20, 22) for sending a probe signal through said antenna structure (20, 22), a receiver (14, 16) electrically connected to said antenna structure (20, 22) for receiving an echo signal through said antenna structure (20, 22), at least a first circuit board, wherein at least part of said driver (10, 12) and/or said receiver (14, 16) is arranged on said first circuit board, at least a second circuit board, wherein said antenna structure (20, 22) is arranged on said second circuit board, a metal body arranged in said frame having first and second opposite sides, at least one electrical connector for electrically connecting said first and second circuit boards (54, 56), wherein said first circuit board is mounted to the first side of said metal body and said second circuit board is mounted to the second side of said circuit body, wherein said metal body comprises a lateral wall circumferentially enclosing an interior space (42, 43) adjacent to said second side, wherein said antenna structure is adjacent to said interior space (42, 43), wherein said device further comprises a set of wheels for rolling it along said sample, wherein said wheels are mounted to said metal body, wherein said metal body comprises wheel holders for holding said wheels and a base plate at its second side and extending between said lateral wall and said wheel holders, and wherein said second circuit board is arranged in an opening of said base plate.
A method of discovering a device with a variable resource complying with a predetermined standard, the method comprising: multicasting (351, 510) a search message including resource request information, which requests the variable resource of the device, to a network complying with the predetermined standard; receiving at least one response message regarding the search message; and discovering the device corresponding with the resource request information based on the received response message; wherein the resource request information comprises a resource type and a resource value required for the device to perform a predetermined operation; wherein the at least one response message is transmitted (356, 730) by the device according to a result of a comparison of the required resource value of the resource request information with a current resource value of the variable resource of the device; and wherein the current resource value of the variable resource of the device is determined (352, 353) by the device in real time upon reception of the search message. multicasting (351, 510) a search message including resource request information, which requests the variable resource of the device, to a network complying with the predetermined standard; receiving at least one response message regarding the search message; and discovering the device corresponding with the resource request information based on the received response message; wherein the resource request information comprises a resource type and a resource value required for the device to perform a predetermined operation; wherein the at least one response message is transmitted (356, 730) by the device according to a result of a comparison of the required resource value of the resource request information with a current resource value of the variable resource of the device; and wherein the current resource value of the variable resource of the device is determined (352, 353) by the device in real time upon reception of the search message.
A ceramic substrate having a main composition comprising Mg 2 SiO 4 and a low-temperature-fired component and having a coefficient of thermal expansion α of not less than 9.0 ppm/°C, said ceramic substrate comprising up to 25 vol.% (excluding zero) ZnAl 2 O 4, wherein the low-temperature-fired component comprises ZnO, B 2 O 3, CuO, and RO where R denotes an alkaline earth metal, wherein the main composition comprises Mg 2 SiO 4 as a major component, wherein, where a is a mass of said Mg 2 SiO 4, b a mass of ZnO, c a mass of B 2 O 3, d a mass of CuO, and e a mass of RO, relative to a total mass (a+b+c+d+e), a proportion of the mass b of ZnO, b/(a+b+c+d+e), is in the range of 8% to 20%, a proportion of the mass c of B 2 O 3, c/(a+b+c+d+e), is in the range of 3% to 10%, a proportion of the mass d of CuO, d/(a+b+c+d+e), is in the range of 2% to 8%, and a proportion of the mass e of RO, e/(a+b+c+d+e), is in the range of 1% to 4%.
A method for producing a nitrile group-containing copolymer rubber, wherein the nitrile group-containing copolymer rubber comprises 10 to 60 wt% of an α, β-ethylenically unsaturated nitrile monomer unit and 1 to 60 wt% of an α,β-ethylenically unsaturated dicarboxylic acid monoester monomer unit, and has an iodine value of 120 or less, a processability index I pro (I pro = C C × S A) of the nitrile group-containing copolymer rubber is 0.0030 or less, where the processability index I pro is the product of the carboxyl group content C C, which is the number of moles of carboxyl groups per 100 g of nitrile group-containing copolymer rubber, and the absorbance area S A of a carboxylic anhydride group determined by infrared spectroscopy, the iodine value and the carboxyl groups content C C of the nitrile group-containing copolymer rubber are determined according to the methods mentioned in the specification, and the method comprises: copolymerizing a monomer mixture constituting the nitrile group-containing copolymer rubber to obtain a copolymer; hydrogenating a carbon-carbon double bond of the obtained copolymer to obtain a hydride of the copolymer; and hot air drying or kneading drying the obtained hydride of the copolymer. the nitrile group-containing copolymer rubber comprises 10 to 60 wt% of an α, β-ethylenically unsaturated nitrile monomer unit and 1 to 60 wt% of an α,β-ethylenically unsaturated dicarboxylic acid monoester monomer unit, and has an iodine value of 120 or less, a processability index I pro (I pro = C C × S A) of the nitrile group-containing copolymer rubber is 0.0030 or less, where the processability index I pro is the product of the carboxyl group content C C, which is the number of moles of carboxyl groups per 100 g of nitrile group-containing copolymer rubber, and the absorbance area S A of a carboxylic anhydride group determined by infrared spectroscopy, the iodine value and the carboxyl groups content C C of the nitrile group-containing copolymer rubber are determined according to the methods mentioned in the specification, and the method comprises: copolymerizing a monomer mixture constituting the nitrile group-containing copolymer rubber to obtain a copolymer; hydrogenating a carbon-carbon double bond of the obtained copolymer to obtain a hydride of the copolymer; and hot air drying or kneading drying the obtained hydride of the copolymer. copolymerizing a monomer mixture constituting the nitrile group-containing copolymer rubber to obtain a copolymer; hydrogenating a carbon-carbon double bond of the obtained copolymer to obtain a hydride of the copolymer; and hot air drying or kneading drying the obtained hydride of the copolymer.
Shearing press comprising: - a filling tray for receiving scrap metal to be processed, - an outlet for processed scrap metal, and - a horizontal hydraulic tappet for releasing the scrap metal from the filling tray through the outlet, the outlet being in the form of a vertical guillotine gate with cutting blades for cutting through the scrap metal which is released from the filling tray via the hydraulic tappet, characterised in that it is self-powered and provided with a remote control configured to control movements of the shearing press. - a filling tray for receiving scrap metal to be processed, - an outlet for processed scrap metal, and - a horizontal hydraulic tappet for releasing the scrap metal from the filling tray through the outlet,