mhurhangee/ep-ind-claims huggingface dataset:
A resin composition comprising, per 100 parts by mass of a resin ingredient composed of 10 to 60 parts by mass of a polyphenylene ether resin and 90 to 40 parts by mass of a polyamide resin: 0.01 to 1.0 parts by mass of a compatibilizer; 0.01 to 1.0 parts by mass of a phenolic antioxidant represented by formula; 0.01 to 1.0 parts by mass of a phosphorus-containing antioxidant; and 0.01 to 1.0 parts by mass of an amine-based antioxidant, having a mass ratio given by phenolic antioxidant represented by formula / phosphorus-containing antioxidant/amine-based antioxidant of 1/0.1 to 2.0/0.1 to 2.0, in formula, each of R 1, R 2 and R 3 independently represents a divalent linking group, wherein the resin composition contains 85 % by mass or more of the resin ingredient composed of the polyphenylene ether resin and the polyamide resin.. 0.01 to 1.0 parts by mass of a compatibilizer; 0.01 to 1.0 parts by mass of a phenolic antioxidant represented by formula; 0.01 to 1.0 parts by mass of a phosphorus-containing antioxidant; and 0.01 to 1.0 parts by mass of an amine-based antioxidant, having a mass ratio given by phenolic antioxidant represented by formula / phosphorus-containing antioxidant/amine-based antioxidant of 1/0.1 to 2.0/0.1 to 2.0, in formula, each of R 1, R 2 and R 3 independently represents a divalent linking group, wherein the resin composition contains 85 % by mass or more of the resin ingredient composed of the polyphenylene ether resin and the polyamide resin..
An ultrasonic sensor for guided wave testing comprising: a flexible circuit board; an array of piezoelectric elements on the flexible circuit board; characterized in that the sensor further comprises an array of permanent magnets, each piezoelectric element interposed between a respective permanent magnet and the flexible circuit board. a flexible circuit board; an array of piezoelectric elements on the flexible circuit board; characterized in that the sensor further comprises an array of permanent magnets, each piezoelectric element interposed between a respective permanent magnet and the flexible circuit board.
A method for use by a user equipment, the method comprising: receiving by the user equipment a handover, HO, command of conditional handover, CHO, from a serving network cell of a plurality of network cells which provides a communication service for the user equipment, acquiring by the user equipment current handover related information when the HO command has been received, logging, by the user equipment, the current handover related information only if a predetermined condition is fulfilled, wherein the predetermined condition is a condition that the current handover related information is different from previous handover related information, wherein the previous handover related information was acquired and reported by the user equipment to the serving cell before receiving the HO command, wherein the predetermined condition further comprises a condition that a certain time duration T has elapsed since the receiving of the handover command before initiating a CHO execution. receiving by the user equipment a handover, HO, command of conditional handover, CHO, from a serving network cell of a plurality of network cells which provides a communication service for the user equipment, acquiring by the user equipment current handover related information when the HO command has been received, logging, by the user equipment, the current handover related information only if a predetermined condition is fulfilled, wherein the predetermined condition is a condition that the current handover related information is different from previous handover related information, wherein the previous handover related information was acquired and reported by the user equipment to the serving cell before receiving the HO command, wherein the predetermined condition further comprises a condition that a certain time duration T has elapsed since the receiving of the handover command before initiating a CHO execution.
A circuit for a dimming system, the circuit comprising: an input for receiving a phase-cut dimmer output signal, the phase-cut dimmer output signal having a period and complementary cut and un-cut parts; an output for outputting a dimming control level signal; a comparator, connected to the input and arranged to produce a pulse-modulated signal from the phase-cut dimmer output signal, the pulse-modulated signal having an on-time which varies in dependence on the duration of the un-cut part; and a converter configured to determine the dimming level control signal directly from the pulse-modulated signal to determine the dimming level control signal and by means of a clock which increments or decrements a counter (FF0...FF7) at each clock cycle during the on-time, and to determine the dimming level control signal from the counter, characterised in that said clock has a variable frequency such that the dimming level control signal has a non-linear by piece-wise linear relationship with the un-cut part. an input for receiving a phase-cut dimmer output signal, the phase-cut dimmer output signal having a period and complementary cut and un-cut parts; an output for outputting a dimming control level signal; a comparator, connected to the input and arranged to produce a pulse-modulated signal from the phase-cut dimmer output signal, the pulse-modulated signal having an on-time which varies in dependence on the duration of the un-cut part; and a converter configured to determine the dimming level control signal directly from the pulse-modulated signal to determine the dimming level control signal and by means of a clock which increments or decrements a counter (FF0...FF7) at each clock cycle during the on-time, and to determine the dimming level control signal from the counter, characterised in that said clock has a variable frequency such that the dimming level control signal has a non-linear by piece-wise linear relationship with the un-cut part.
A rotary blood pump comprising: a housing defining a pumping chamber with upper and lower interior surfaces and having a blood inlet and a tangential blood outlet; a rotatable impeller within the pumping chamber and adapted to increase blood pressure within the pumping chamber to cause blood to move to the blood outlet, the impeller having at least one raised surface area adjacent the upper interior surface of the pumping chamber; an inclined bearing surface of the raised surface area having an entrance region and an exit region such that a gap between the bearing surface and the upper interior surface of the housing decreases from the entrance region to the exit region creating a hydrodynamic thrust load acting to bias the impeller axially away from the upper interior surface of the housing when the impeller is rotating, each of the bearing surfaces having a shroud (43/44) extending from the entrance region to the exit region along each of its inner and outer sides; and characterised by a wedge-shaped pressure relief surface of said raised surface having a leading portion adjacent said exit region of said bearing surface; and having a trailing portion; and a gap between said pressure relief surface and said upper interior surface of said housing increasing from said leading portion of said pressure relief surface to its trailing portion, whereby blood traverses said raised surface area without hemolysis. a housing defining a pumping chamber with upper and lower interior surfaces and having a blood inlet and a tangential blood outlet; a rotatable impeller within the pumping chamber and adapted to increase blood pressure within the pumping chamber to cause blood to move to the blood outlet, the impeller having at least one raised surface area adjacent the upper interior surface of the pumping chamber; an inclined bearing surface of the raised surface area having an entrance region and an exit region such that a gap between the bearing surface and the upper interior surface of the housing decreases from the entrance region to the exit region creating a hydrodynamic thrust load acting to bias the impeller axially away from the upper interior surface of the housing when the impeller is rotating, each of the bearing surfaces having a shroud (43/44) extending from the entrance region to the exit region along each of its inner and outer sides; and characterised by a wedge-shaped pressure relief surface of said raised surface having a leading portion adjacent said exit region of said bearing surface; and having a trailing portion; and a gap between said pressure relief surface and said upper interior surface of said housing increasing from said leading portion of said pressure relief surface to its trailing portion, whereby blood traverses said raised surface area without hemolysis.
A method for configuring a pressure sensor, comprising: providing a homogeneous piece of metal; integrating a pressure port and a diaphragm onto said homogeneous piece of metal to thereby provide a pressure sensor based on said pressure port and said diaphragm and related pressure sensor components thereof. providing a homogeneous piece of metal; integrating a pressure port and a diaphragm onto said homogeneous piece of metal to thereby provide a pressure sensor based on said pressure port and said diaphragm and related pressure sensor components thereof.
A gas sensor for determining the NO 2 and NO x concentrations, comprising: a platinum reference electrode (2, 8); at least two sensing electrodes (1, 3, 9, 11) including a first La 2 CuO 4 sensing electrode (1, 9) and a second La 2 CuO 4 sensing electrode (3, 11), wherein each of the reference and sensing electrodes (1, 2, 3, 8, 9, 11) is in contact with an oxygen ion-conducting electrolyte and exposed to an environment of interest; a mechanism configured to: - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes (1, 3, 9, 11), - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode (1, 9) and the second La 2 CuO 4 sensing electrode (3, 11), and - establish a temperature difference between the first La 2 CuO 4 sensing electrode (1, 9) and the platinum reference electrode (2, 8); and a detector configured to measure a first electrical characteristic between the first La 2 CuO 4 sensing electrode (1, 9) and the reference electrode (2, 8), and a second electrical characteristic between the first La 2 CuO 4 sensing electrode (1, 9) and the second La 2 CuO 4 sensing electrode (3, 11), wherein the concentration of NO 2 in the environment of interest is based on the first electrical characteristic and the total concentration of NO 2 and NO (NO x) in the environment of interest is based on the second electrical characteristic. a platinum reference electrode (2, 8); at least two sensing electrodes (1, 3, 9, 11) including a first La 2 CuO 4 sensing electrode (1, 9) and a second La 2 CuO 4 sensing electrode (3, 11), wherein each of the reference and sensing electrodes (1, 2, 3, 8, 9, 11) is in contact with an oxygen ion-conducting electrolyte and exposed to an environment of interest; a mechanism configured to: - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes (1, 3, 9, 11), - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode (1, 9) and the second La 2 CuO 4 sensing electrode (3, 11), and - establish a temperature difference between the first La 2 CuO 4 sensing electrode (1, 9) and the platinum reference electrode (2, 8); and - alter a corresponding one or more temperatures of one or more of the at least two sensing electrodes (1, 3, 9, 11), - establish a temperature difference (dT) between the first La 2 CuO 4 sensing electrode (1, 9) and the second La 2 CuO 4 sensing electrode (3, 11), and - establish a temperature difference between the first La 2 CuO 4 sensing electrode (1, 9) and the platinum reference electrode (2, 8); and a detector configured to measure a first electrical characteristic between the first La 2 CuO 4 sensing electrode (1, 9) and the reference electrode (2, 8), and a second electrical characteristic between the first La 2 CuO 4 sensing electrode (1, 9) and the second La 2 CuO 4 sensing electrode (3, 11), wherein the concentration of NO 2 in the environment of interest is based on the first electrical characteristic and the total concentration of NO 2 and NO (NO x) in the environment of interest is based on the second electrical characteristic.
A process for increasing production of benzene from a hydrocarbon mixture, comprising: (a) separating the hydrocarbon feedstock into a C6 or lower hydrocarbon stream and a C7 or higher hydrocarbon stream; (b) separating the C6 or lower hydrocarbons, coming from step (a) into a non-aromatic hydrocarbon stream and an aromatic hydrocarbon stream through a solvent extraction process; (c) recovering benzene from the aromatic hydrocarbon stream; (d) feeding the C7 or higher hydrocarbons and hydrogen into at least one reaction area; (e) converting the C7 or higher hydrocarbons coming from step (a) in presence of a catalyst in the reaction area into (i) aromatic hydrocarbons, which are rich in benzene, toluene, and xylene employing dealkylation/transalkylation reactions, and (ii) non-aromatic hydrocarbons which are rich in liquefied petroleum gas through a hydrocracking reaction; (f) separating reaction products of step (e) into an overhead stream, which contains hydrogen, methane, ethane, and the liquefied petroleum gas, and a bottom stream, which contains the aromatic hydrocarbons, and a small amount of hydrogen and non-aromatic hydrocarbons, using a gas-liquid separation process; and (g) recovering benzene, toluene, xylene, and C9 or higher aromatic compounds from the bottom stream. (a) separating the hydrocarbon feedstock into a C6 or lower hydrocarbon stream and a C7 or higher hydrocarbon stream; (b) separating the C6 or lower hydrocarbons, coming from step (a) into a non-aromatic hydrocarbon stream and an aromatic hydrocarbon stream through a solvent extraction process; (c) recovering benzene from the aromatic hydrocarbon stream; (d) feeding the C7 or higher hydrocarbons and hydrogen into at least one reaction area; (e) converting the C7 or higher hydrocarbons coming from step (a) in presence of a catalyst in the reaction area into (i) aromatic hydrocarbons, which are rich in benzene, toluene, and xylene employing dealkylation/transalkylation reactions, and (ii) non-aromatic hydrocarbons which are rich in liquefied petroleum gas through a hydrocracking reaction; (f) separating reaction products of step (e) into an overhead stream, which contains hydrogen, methane, ethane, and the liquefied petroleum gas, and a bottom stream, which contains the aromatic hydrocarbons, and a small amount of hydrogen and non-aromatic hydrocarbons, using a gas-liquid separation process; and (g) recovering benzene, toluene, xylene, and C9 or higher aromatic compounds from the bottom stream.
A wearable device, comprising: a housing having a back cover; the back cover including a set of windows arranged around a central portion of the back cover, wherein, a first subset of windows have a first shape; a second subset of windows have a second shape different than the first shape; and the first subset of windows alternate with the second subset of windows; a first set of optical barriers surrounding each window of the second subset of windows; a set of light emitters configured to emit light through each of the first subset of windows; and a set of light detectors configured to receive light through each of the second subset of windows. a housing having a back cover; the back cover including a set of windows arranged around a central portion of the back cover, wherein, a first subset of windows have a first shape; a second subset of windows have a second shape different than the first shape; and the first subset of windows alternate with the second subset of windows; a first subset of windows have a first shape; a second subset of windows have a second shape different than the first shape; and the first subset of windows alternate with the second subset of windows; a first set of optical barriers surrounding each window of the second subset of windows; a set of light emitters configured to emit light through each of the first subset of windows; and a set of light detectors configured to receive light through each of the second subset of windows.
A tire for a vehicle comprising: a tire tread (100, 200, 300, 400) having a circumferential direction, an axial direction, and a radial direction, the tire tread (100, 200, 300, 400) having at least one circumferential groove (102, 202, 302, 402) which extends in the circumferential direction, the at least one circumferential groove (102, 202, 302, 402) having a groove base (106, 406), and a first groove sidewall (104, 404) and a second groove sidewall (104, 404); and a plurality of sets of traction elements (108, 208, 308, 408) in the circumferential groove (102, 202, 302, 402) wherein each of the plurality of sets of traction elements (108, 208, 308, 408) is connected to one of the first and second groove sidewalls (104, 404) and the groove base (106, 406); wherein the plurality of sets of traction elements (108, 208, 308, 408) alternates between the first groove side wall (104, 404) and the second groove sidewall (104, 404); wherein at least one of the traction elements (108, 208, 308, 408) of the plurality of sets of traction elements (108, 208, 308, 408) has at least one indentation (110, 410) oriented on a radially outermost edge between the groove base and said one of the first and second groove sidewalls (104, 404), wherein the at least one indentation (110, 410) is arcuate in shape and has a radius, and wherein the radially outermost edge has an angle of inclination (θ) relative to the radial direction, characterized in that the traction elements (108, 208, 308, 408) of each of the plurality of sets of traction elements (108, 208, 308, 408) have varying widths. a tire tread (100, 200, 300, 400) having a circumferential direction, an axial direction, and a radial direction, the tire tread (100, 200, 300, 400) having at least one circumferential groove (102, 202, 302, 402) which extends in the circumferential direction, the at least one circumferential groove (102, 202, 302, 402) having a groove base (106, 406), and a first groove sidewall (104, 404) and a second groove sidewall (104, 404); and a plurality of sets of traction elements (108, 208, 308, 408) in the circumferential groove (102, 202, 302, 402) wherein each of the plurality of sets of traction elements (108, 208, 308, 408) is connected to one of the first and second groove sidewalls (104, 404) and the groove base (106, 406); wherein the plurality of sets of traction elements (108, 208, 308, 408) alternates between the first groove side wall (104, 404) and the second groove sidewall (104, 404); wherein at least one of the traction elements (108, 208, 308, 408) of the plurality of sets of traction elements (108, 208, 308, 408) has at least one indentation (110, 410) oriented on a radially outermost edge between the groove base and said one of the first and second groove sidewalls (104, 404), wherein the at least one indentation (110, 410) is arcuate in shape and has a radius, and wherein the radially outermost edge has an angle of inclination (θ) relative to the radial direction, characterized in that the traction elements (108, 208, 308, 408) of each of the plurality of sets of traction elements (108, 208, 308, 408) have varying widths.
A die-cast component made of a temperable aluminum alloy with the following alloy components: from 5.0 to 9.0 wt% silicon (Si), from 0.25 to 0.5 wt% magnesium (Mg)and optionally up to 0.8 wt% manganese (Mn), from 0.08 to 0.35 wt% zinc (Zn), from 0.08 to 0.35 wt% chromium (Cr), up to 0.30 wt% zirconium (Zr), up to 0.25 wt% iron (Fe), up to 0.15 wt% titanium (Ti), up to 0.20 wt% copper (Cu), up to 0.025 wt% strontium (Sr), up to 0.2 wt% vanadium, up to 0.2 wt% molybdenum (Mo) and residual aluminum as well as inevitable production-related impurities, containing at most 0.05 wt% of each and at most 0.15 wt% collectively, wherein the die-cast component has a yield strength (R p0.2) of greater than 190 MPa and an elongation at break (A 5) of greater than or equal to 7% and the uniform elongation (A g) and necking elongation (A z) satisfy the condition A z ≥ A g /2. and residual aluminum as well as inevitable production-related impurities, containing at most 0.05 wt% of each and at most 0.15 wt% collectively, wherein the die-cast component has a yield strength (R p0.2) of greater than 190 MPa and an elongation at break (A 5) of greater than or equal to 7% and the uniform elongation (A g) and necking elongation (A z) satisfy the condition A z ≥ A g /2. has a yield strength (R p0.2) of greater than 190 MPa and an elongation at break (A 5) of greater than or equal to 7% and the uniform elongation (A g) and necking elongation (A z) satisfy the condition A z ≥ A g /2.
A wearable device for providing an alert to a wearer regarding the wearer's blood glucose value, the device comprising: a communication module configured to receive a signal wirelessly from a transmitter of a continuous glucose monitoring, CGM, device; and an alert interface configured to provide a first alert when the wearer's blood glucose value is within a predetermined range, and a second alert that the wearer's blood glucose value is outside the predetermined range; wherein: the device is configured to communicate with a network of other devices associated with other users; the device is configured to detect the wearer's location and the locations of other users in the network; and the device is programmable by the wearer to communicate with selected followers and, if the wearer does not acknowledge an alert, the device is configured to notify the followers, wherein the device is configured to group the followers by proximity so only those that are nearby are notified. a communication module configured to receive a signal wirelessly from a transmitter of a continuous glucose monitoring, CGM, device; and an alert interface configured to provide a first alert when the wearer's blood glucose value is within a predetermined range, and a second alert that the wearer's blood glucose value is outside the predetermined range; wherein: the device is configured to communicate with a network of other devices associated with other users; the device is configured to detect the wearer's location and the locations of other users in the network; and the device is programmable by the wearer to communicate with selected followers and, if the wearer does not acknowledge an alert, the device is configured to notify the followers, wherein the device is configured to group the followers by proximity so only those that are nearby are notified. the device is configured to communicate with a network of other devices associated with other users; the device is configured to detect the wearer's location and the locations of other users in the network; and the device is programmable by the wearer to communicate with selected followers and, if the wearer does not acknowledge an alert, the device is configured to notify the followers, wherein the device is configured to group the followers by proximity so only those that are nearby are notified.