mhurhangee/ep-ind-claims huggingface dataset:
An electrostatic-coupling contactless power supply device comprising: power supply electrodes (51, 52) that are made of a conductive material and are disposed on a grounded fixing portion so as to be electrically insulated from the grounded fixing portion; a high-frequency power source circuit that supplies high-frequency power to the power supply electrodes (51, 52); power receiving electrodes (81, 81) that are disposed on a movable portion movably mounted on the fixing portion, face the power supply electrodes (51, 52) so as to be spaced apart from the power supply electrodes (51, 52), and receive the high-frequency power in a contactless manner; and a power receiving circuit that converts the high-frequency power received by the power receiving electrodes (81, 82) and supplies the converted high-frequency power to an electrical load provided on the movable portion, characterized in that insulating supports (6, 61, 62), which are made of an electrical insulating material and support the power supply electrodes (51, 52), are disposed in a part of electrostatic-coupling regions in which parasitic capacitances are formed between the fixing portion and the power supply electrodes (51, 52), and a remainder of the electrostatic-coupling regions form voids between the insulating supports (6, 61, 62). power supply electrodes (51, 52) that are made of a conductive material and are disposed on a grounded fixing portion so as to be electrically insulated from the grounded fixing portion; a high-frequency power source circuit that supplies high-frequency power to the power supply electrodes (51, 52); power receiving electrodes (81, 81) that are disposed on a movable portion movably mounted on the fixing portion, face the power supply electrodes (51, 52) so as to be spaced apart from the power supply electrodes (51, 52), and receive the high-frequency power in a contactless manner; and a power receiving circuit that converts the high-frequency power received by the power receiving electrodes (81, 82) and supplies the converted high-frequency power to an electrical load provided on the movable portion, characterized in that insulating supports (6, 61, 62), which are made of an electrical insulating material and support the power supply electrodes (51, 52), are disposed in a part of electrostatic-coupling regions in which parasitic capacitances are formed between the fixing portion and the power supply electrodes (51, 52), and a remainder of the electrostatic-coupling regions form voids between the insulating supports (6, 61, 62).
A vehicle safety electronic control system comprising: a first microcontroller having a lockstep architecture with a lockstep core; and characterised by a second microcontroller having at least two processing cores (16, 17); wherein said lockstep core of the first microcontroller is configured to monitor and control outputs of said at least two cores (16, 17) of the second microcontroller.
A fuel blendstock comprising from 25 to 60 volume % toluene, from 15 to 40 volume % benzene, from 5 to 20 volume % xylenes, from 0.01 to 15 volume % C 9 + aromatics, from 0.5 to 10 volume % paraffins, less than 0.4 weight % olefins, less than 10 ppm by weight sulfur, less than 10 ppm by weight nitrogen, and less than 1 weight % oxygen, said blendstock having a calculated octane rating ((R+M)/2) of at least 100, and a calculated RVP of less than 34,5 kPa (5 psia).
A lamination for the formation of a stack of superposed metallic laminations, characterized in that it comprises at least one assembly of coupling elements, said assembly comprising one insertion clamp, one receiving clamp and at least one receiving window (40, 40'), said coupling elements maintaining the same relative positioning from one another, the insertion clamp and the receiving clamp being defined by respective portions of the lamination axially projecting to the same side of the latter, the insertion clamp of a lamination being dimensioned to be fitted, by interference, in the interior of the receiving clamp of an adjacent lamination, and the receiving clamp of one lamination being dimensioned to be housed in the receiving window (40, 40') of at least one other lamination.
A blood collection device comprising: a cannula hub defining a chamber; a cannula defining an axis and having a distal end, a proximal end and a lumen extending therethrough, the cannula being mounted to the cannula hub such that the distal end and the proximal end of the cannula are external of the cannula hub and such that the lumen through the cannula communicates with the chamber by means of an opening; a closed sleeve mounted over a portion of the cannula disposed externally of the cannula hub; and a venting mechanism providing communication between the chamber and ambient surroundings; wherein the venting mechanism comprises a tubular insert defining a fluid passage therethrough and a membrane extending across the fluid passage, wherein the membrane is made from a material permeable for air and impermeable for blood; characterized in that the tubular insert is received in a tubular projection extending from the cannula hub such that the end of the tubular insert facing towards the flashback chamber abuts on an inner collar when the tubular insert is fully inserted into the tubular projection, whereby the inner collar is provided in the transition region from the tubular projection to the flashback chamber. a cannula hub defining a chamber; a cannula defining an axis and having a distal end, a proximal end and a lumen extending therethrough, the cannula being mounted to the cannula hub such that the distal end and the proximal end of the cannula are external of the cannula hub and such that the lumen through the cannula communicates with the chamber by means of an opening; a closed sleeve mounted over a portion of the cannula disposed externally of the cannula hub; and a venting mechanism providing communication between the chamber and ambient surroundings; wherein the venting mechanism comprises a tubular insert defining a fluid passage therethrough and a membrane extending across the fluid passage, wherein the membrane is made from a material permeable for air and impermeable for blood; characterized in that the tubular insert is received in a tubular projection extending from the cannula hub such that the end of the tubular insert facing towards the flashback chamber abuts on an inner collar when the tubular insert is fully inserted into the tubular projection, whereby the inner collar is provided in the transition region from the tubular projection to the flashback chamber.
Kit for determining the week of pregnancy, comprising: - a testing device having a porous absorbent support comprising a first region, which is impregnated with a first specific binding partner which binds to human chorionic gonadotropin (hCG) and which is freely movable in the support when the support is moist, and comprising a second region as a detection zone, which has a second specific binding partner which is immobilized on the support and which binds to hCG, wherein the first specific binding partner is labeled with a dye or can be labeled with a dye that is impregnated on the support downstream of the first area such that the dye can be mobilized in a moist state, wherein the second specific binding partner which is immobilized on the support is capable of binding at least 2,500 mIU hCG/ml of a sample; and - a color scale for visually comparing color intensities, wherein a specific hCG concentration of the sample to be analyzed/a week of pregnancy is assigned to the individual color intensities on the scale as follows: hCG concentration [mIU/mL] Week of pregnancy < 100 1 - 2 100 - 2,500 2 - 3 > 2,500 3 and more - a testing device having a porous absorbent support comprising a first region, which is impregnated with a first specific binding partner which binds to human chorionic gonadotropin (hCG) and which is freely movable in the support when the support is moist, and comprising a second region as a detection zone, which has a second specific binding partner which is immobilized on the support and which binds to hCG, wherein the first specific binding partner is labeled with a dye or can be labeled with a dye that is impregnated on the support downstream of the first area such that the dye can be mobilized in a moist state, wherein the second specific binding partner which is immobilized on the support is capable of binding at least 2,500 mIU hCG/ml of a sample; and - a color scale for visually comparing color intensities, wherein a specific hCG concentration of the sample to be analyzed/a week of pregnancy is assigned to the individual color intensities on the scale as follows: hCG concentration [mIU/mL] Week of pregnancy < 100 1 - 2 100 - 2,500 2 - 3 > 2,500 3 and more
A method for preparing an alkenyl ether polyol containing at least one alkenyl ether group, in particular a 1-alkenyl ether group, and at least two hydroxyl groups (-OH), by: A) reacting an alkenyl ether, containing at least one alkenyl ether group and at least one functional group selected from -OH, -COOH, -SH, -NH 2 and derivatives thereof, with (i) an epoxide or (ii) a cyclic carbonate or derivative thereof; or B) reacting an alkenyl ether, containing at least one alkenyl ether group and at least one functional group selected from (i) epoxide groups and (ii) cyclic carbonate groups or derivatives thereof, with an alcohol, thiol, a carboxylic acid, or an amine or derivatives thereof. A) reacting an alkenyl ether, containing at least one alkenyl ether group and at least one functional group selected from -OH, -COOH, -SH, -NH 2 and derivatives thereof, with (i) an epoxide or (ii) a cyclic carbonate or derivative thereof; or B) reacting an alkenyl ether, containing at least one alkenyl ether group and at least one functional group selected from (i) epoxide groups and (ii) cyclic carbonate groups or derivatives thereof,
Process for the preparation of di- and polyamines of the diphenylmethane series, in which a) aniline and formaldehyde are reacted in the presence of an acidic catalyst to give a reaction mixture comprising di- and polyamines of the diphenylmethane series, b) the reaction mixture comprising di- and polyamines of the diphenylmethane series is neutralized, c) the neutralized reaction mixture comprising di- and polyamines of the diphenylmethane series is separated in a separation container into an organic phase comprising di- and polyamines of the diphenylmethane series and an aqueous phase, d) the organic phase comprising di- and polyamines of the diphenylmethane series is further purified in a washing container with washing liquid, e) the mixture obtained in step d) is freed from aqueous constituents, giving an organic phase comprising di- and polyamines of the diphenylmethane series, f) the organic phase comprising di- and polyamines of the diphenylmethane series is freed distillatively from water and aniline, characterized in that for the separation off of the aqueous constituents in step e), the mixture obtained in step d) e.1) is separated in a separating container into an aqueous and an organic phase, wherein aqueous constituents are dispersed in the organic phase, and then e.2) the organic phase obtained in step e.1) (i) is passed at a temperature in the range from 50°C to 120°C and at a pressure such that boiling of the disperse system does not occur, without use of inert gases, through a filter bed made of coalescence fiber material and (ii) is then separated into an aqueous phase and the organic phase. a) aniline and formaldehyde are reacted in the presence of an acidic catalyst to give a reaction mixture comprising di- and polyamines of the diphenylmethane series, b) the reaction mixture comprising di- and polyamines of the diphenylmethane series is neutralized, c) the neutralized reaction mixture comprising di- and polyamines of the diphenylmethane series is separated in a separation container into an organic phase comprising di- and polyamines of the diphenylmethane series and an aqueous phase, d) the organic phase comprising di- and polyamines of the diphenylmethane series is further purified in a washing container with washing liquid, e) the mixture obtained in step d) is freed from aqueous constituents, giving an organic phase comprising di- and polyamines of the diphenylmethane series, f) the organic phase comprising di- and polyamines of the diphenylmethane series is freed distillatively from water and aniline, e.1) is separated in a separating container into an aqueous and an organic phase, wherein aqueous constituents are dispersed in the organic phase, and then e.2) the organic phase obtained in step e.1) (i) is passed at a temperature in the range from 50°C to 120°C and at a pressure such that boiling of the disperse system does not occur, without use of inert gases, through a filter bed made of coalescence fiber material and (ii) is then separated into an aqueous phase and the organic phase.
Method for manufacturing a component of an axial turbomachine, preferably of an aircraft turbojet engine compressor (4; 6), the method comprising the following steps: (a) supplying or producing a component having a surface that is to be treated, (b) placing the component in a chamber containing particles; and (c) peening, preferably ultrasonic peening, of the surface using the particles; characterized in that the chamber contains an abrasive paste mixed with the particles so as to polish the peened surface during the peening step (c). (a) supplying or producing a component having a surface that is to be treated, (b) placing the component in a chamber containing particles; and (c) peening, preferably ultrasonic peening, of the surface using the particles;
A computer-implemented method for characterising the evolution of a reservoir by determining a seismic wavelet which links observed seismic data to a sequence of reflectivities, said method comprising: providing a base survey of the reservoir with a set of seismic traces at a first time; providing a monitor survey of the reservoir, taken at a second time, with a set of seismic traces associated to the same positions as in the base survey; determining seismic data from said base survey and monitor survey by aligning said monitor and base surveys; and subtracting said base survey from said monitor survey, said seismic data representing seismic changes which have occurred between the first time and the second time, said seismic data comprising a plurality of seismic traces; and characterized in that the method further comprises performing an optimisation operation simultaneously on said plurality of seismic traces by simultaneously optimising for said seismic wavelet and reflectivity change data occurring between said first time and said second time. providing a base survey of the reservoir with a set of seismic traces at a first time; providing a monitor survey of the reservoir, taken at a second time, with a set of seismic traces associated to the same positions as in the base survey; determining seismic data from said base survey and monitor survey by aligning said monitor and base surveys; and subtracting said base survey from said monitor survey, said seismic data representing seismic changes which have occurred between the first time and the second time, said seismic data comprising a plurality of seismic traces; and characterized in that the method further comprises performing an optimisation operation simultaneously on said plurality of seismic traces by simultaneously optimising for said seismic wavelet and reflectivity change data occurring between said first time and said second time.
A vehicular motion control device comprising: a target trajectory acquisition unit (la) that acquires a target trajectory for a vehicle to travel; and a speed control unit that performs an increase or a decrease in a longitudinal acceleration in a vehicle traveling direction generated in the vehicle, wherein when the vehicle deviates from the target trajectory during turning of the vehicle, the speed control unit performs a longitudinal acceleration control to increase or decrease the longitudinal acceleration, characterized in that when detecting that the vehicle deviates from the target trajectory during the turning of the vehicle and increasing a turning radius of the vehicle, the speed control unit performs a longitudinal acceleration control to increase the longitudinal acceleration. a target trajectory acquisition unit (la) that acquires a target trajectory for a vehicle to travel; and a speed control unit that performs an increase or a decrease in a longitudinal acceleration in a vehicle traveling direction generated in the vehicle, wherein when the vehicle deviates from the target trajectory during turning of the vehicle, the speed control unit performs a longitudinal acceleration control to increase or decrease the longitudinal acceleration, characterized in that when detecting that the vehicle deviates from the target trajectory during the turning of the vehicle and increasing a turning radius of the vehicle, the speed control unit performs a longitudinal acceleration control to increase the longitudinal acceleration.
A resin supply material suitable for molding a fiber-reinforced resin, the resin supply material comprising reinforcing fibers and the resin, the reinforcing fibers are discontinuous fibers which are in the form of a web in which discontinuous fibers are dispersed in a bundle shape or a monofilament shape, and gaps to be impregnated with a resin exist between the discontinuous fibers, and the discontinuous fibers in the web are bonded together by a binder, wherein a fiber volume content Vfi of the reinforcing fibers as expressed by the following formula is 20% or less Vfi = Vf 1 / Vp 1 × 100 % Vf1: fiber volume (mm 3) in resin supply material Vp1: volume (mm 3) of resin supply material, and wherein a fiber weight content Wfi of the reinforcing fibers as expressed by the following formula is 30% or less. Wfi = Wf 1 / Wf 1 + Wr 1 × 100 % Wf1: fiber weight (g) in resin supply material Wr1: resin weight (g) in resin supply material. wherein a fiber volume content Vfi of the reinforcing fibers as expressed by the following formula is 20% or less Vfi = Vf 1 / Vp 1 × 100 % Vf1: fiber volume (mm 3) in resin supply material Vp1: volume (mm 3) of resin supply material, and wherein a fiber weight content Wfi of the reinforcing fibers as expressed by the following formula is 30% or less. Wfi = Wf 1 / Wf 1 + Wr 1 × 100 % Wf1: fiber weight (g) in resin supply material Wr1: resin weight (g) in resin supply material.
A method for aligning nanotubes within an extensible structure, the method comprising: providing a nano-based structure formed by bundles of substantially non-aligned nanotubes, ropes of substantially non-aligned nanotubes and substantially non-aligned nanotubes, wherein the nano-based structure is a non woven sheet or yarn; exposing the nanotubes within the structure to a solution having a solvent and a surfactant to promote separation of the nanotubes within the structure; and stretching the structure, after the exposing step, so as to substantially align the nanotubes within the structure relative to one another and forming a plurality of contact points between adjacent nanotubes within the stretched structure, wherein the stretched structure has a relative decrease in resistivity and a relative increase in tensile strength in comparison to the structure before the exposing and the stretching steps. providing a nano-based structure formed by bundles of substantially non-aligned nanotubes, ropes of substantially non-aligned nanotubes and substantially non-aligned nanotubes, wherein the nano-based structure is a non woven sheet or yarn; exposing the nanotubes within the structure to a solution having a solvent and a surfactant to promote separation of the nanotubes within the structure; and stretching the structure, after the exposing step, so as to substantially align the nanotubes within the structure relative to one another and forming a plurality of contact points between adjacent nanotubes within the stretched structure,
A signal reception apparatus, characterized by comprising: a personal computer interface, configured to implement the communications between a personal computer and the signal reception apparatus; an antenna module, configured to receive a signal of a base station; an antenna interface, configured to implement the communications between a terminal and the signal reception apparatus, so as to provide the signal received by the antenna module to the terminal; a signal processing module, configured to control the signal strength of the signal reception apparatus according to signal strength data from the personal computer; and a strength indication module, configured to display the signal strength according to the control of the signal processing module. a personal computer interface, configured to implement the communications between a personal computer and the signal reception apparatus; an antenna module, configured to receive a signal of a base station; an antenna interface, configured to implement the communications between a terminal and the signal reception apparatus, so as to provide the signal received by the antenna module to the terminal; a signal processing module, configured to control the signal strength of the signal reception apparatus according to signal strength data from the personal computer; and a strength indication module, configured to display the signal strength according to the control of the signal processing module.
A method for pairing a first computing device (122;416) with a second computing device, the method comprising: detecting motion at the first computing device (122;416); determining, at the first computing device (122;416), whether a pattern of the detected motion corresponds with a saved motion pattern; and if it is determined (514: YES) that pattern of the detected motion corresponds with the saved motion pattern, activating a communications subsystem on the first computing device to begin a pairing process of pairing the first computing device (122;416) with the second computing device; wherein the first computing device (122;416) is a sensor apparatus mounted to a shipping container, the second computing device is a sensor apparatus mounted to a vehicle or trailer (110, 150), and wherein the saved motion pattern corresponds to the motion pattern for loading the shipping container onto the vehicle or trailer (110, 150). detecting motion at the first computing device (122;416); determining, at the first computing device (122;416), whether a pattern of the detected motion corresponds with a saved motion pattern; and if it is determined (514: YES) that pattern of the detected motion corresponds with the saved motion pattern, activating a communications subsystem on the first computing device to begin a pairing process of pairing the first computing device (122;416) with the second computing device; wherein the first computing device (122;416) is a sensor apparatus mounted to a shipping container, the second computing device is a sensor apparatus mounted to a vehicle or trailer (110, 150), and wherein the saved motion pattern corresponds to the motion pattern for loading the shipping container onto the vehicle or trailer (110, 150).