mhurhangee/ep-ind-claims huggingface dataset:
An electrode comprising an electrically conductive substrate, said substrate being coated with a matrix material comprising a sol-gel covalently attached to at least one of an analyte sensitive material and an analyte insensitive material, wherein said sol-gel is formed by crosslinking a compound having the structure of Formula: wherein in the compound of Formula at least two of R 1, R 2 and R 3 are independently alkoxy or aryloxy, and the third may be alkyl, aryl, alkoxy, or aryloxy; X 1 is -O- or a chemical bond; L is a linker; Y 1 ' is -CO 2 NR 4 -, -O-, -NR 4 CO-, -RsCO-, -P (OR 6)O-, -CO 2 -, -O 2 C-, -NR 4 O 2 -, -O 2 CNR 4, -N=N- or a chemical bond, wherein R 4, R 5 and R 6 are independently hydrogen, alkyl, or aryl; ASM 1 is an ASM or AIM, wherein ASM 1 is selected from the group consisting of Formulae,, and (VIII): or wherein ASM 1 is derived from Formula,,,, (XIII),, or: wherein R 20, R 21, R 22, R 23, R 24, R 25, R 26, R 27, R 28, R 29, R 30, R 31, R 32 and R 33 are independently hydrogen, -CO 2 H, halogen, -OH, -NHR 4, -SO 2 H, -R 5 CO, -P (OR 6), -N 3, -CN, alkyl, aryl or alkoxy, with the proviso that at least one substituent is -CO 2 H, halogen, -OH, -NHR 4, -SO 2 H, -RsCO, -P (OR 6), -N 3 or -CN. an electrically conductive substrate, said substrate being coated with a matrix material comprising a sol-gel covalently attached to at least one of an analyte sensitive material and an analyte insensitive material, wherein said sol-gel is formed by crosslinking a compound having the structure of Formula: wherein in the compound of Formula at least two of R 1, R 2 and R 3 are independently alkoxy or aryloxy, and the third may be alkyl, aryl, alkoxy, or aryloxy; X 1 is -O- or a chemical bond; L is a linker; Y 1 ' is -CO 2 NR 4 -, -O-, -NR 4 CO-, -RsCO-, -P (OR 6)O-, -CO 2 -, -O 2 C-, -NR 4 O 2 -, -O 2 CNR 4, -N=N- or a chemical bond, wherein R 4, R 5 and R 6 are independently hydrogen, alkyl, or aryl; ASM 1 is an ASM or AIM, wherein ASM 1 is selected from the group consisting of Formulae,, and (VIII): or wherein ASM 1 is derived from Formula,,,, (XIII),, or: at least two of R 1, R 2 and R 3 are independently alkoxy or aryloxy, and the third may be alkyl, aryl, alkoxy, or aryloxy; X 1 is -O- or a chemical bond; L is a linker; Y 1 ' is -CO 2 NR 4 -, -O-, -NR 4 CO-, -RsCO-, -P (OR 6)O-, -CO 2 -, -O 2 C-, -NR 4 O 2 -, -O 2 CNR 4, -N=N- or a chemical bond, wherein R 4, R 5 and R 6 are independently hydrogen, alkyl, or aryl; ASM 1 is an ASM or AIM, wherein ASM 1 is selected from the group consisting of Formulae,, and (VIII): or wherein ASM 1 is derived from Formula,,,, (XIII),, or: wherein ASM 1 is selected from the group consisting of Formulae,, and (VIII): or wherein ASM 1 is derived from Formula,,,, (XIII),, or: wherein R 20, R 21, R 22, R 23, R 24, R 25, R 26, R 27, R 28, R 29, R 30, R 31, R 32 and R 33 are independently hydrogen, -CO 2 H, halogen, -OH, -NHR 4, -SO 2 H, -R 5 CO, -P (OR 6), -N 3, -CN, alkyl, aryl or alkoxy, with the proviso that at least one substituent is -CO 2 H, halogen, -OH, -NHR 4, -SO 2 H, -RsCO, -P (OR 6), -N 3 or -CN.
A method of converting a directly measured mass flow rate to account for buoyancy, the method comprising: directly measuring a mass flow rate of a material; measuring a density of the material; and using the measured density of the material to convert the directly measured mass flow rate into a mass value including a buoyancy of a fluid. directly measuring a mass flow rate of a material; measuring a density of the material; and using the measured density of the material to convert the directly measured mass flow rate into a mass value including a buoyancy of a fluid.
Non-cylindrical mold core for producing molded parts which forms an inner shape of a molded part to be produced and has a mold contour in the region of a cavity along the inner shape of a molded part to be produced comprising at least two side walls at a defined angle to one another and at least one corner region, in particular in the injection molding or die casting process, comprising flow channels for transporting a temperature control medium, characterized in that the temperature control medium can be guided close to the contour along one of the corner regions and/or one of the side walls via an inner flow channel, at least one distributing flow channel as a flow surface of the mold contour close to the contour within the end region of the mold core, and at least one flow channel (12, 13, 14, 15, 20, 21, 22, 23) within the mold contour.
A device to heat a body vessel in a body, the device comprising: a coil being electrically conductive for positioning adjacent the treatment site, the coil including a resistive part, the device having a return path, the device being configured to operate in a radiofrequency mode and a resistive mode; means for occluding the body vessel at a position upstream of the treatment site such that the treatment site is substantially free of fluid flow; and a control unit adapted for: transmitting a radiofrequency signal from the coil to the return electrode to heat the body vessel, the resistive part being at a first temperature, the device being in the radiofrequency mode; detecting at least one change in the coil; and transmitting a current through the coil when the at least one change is detected to heat the resistive part to a second temperature greater than the first temperature and sufficient to occlude the body vessel, the device being in the resistive mode. a coil being electrically conductive for positioning adjacent the treatment site, the coil including a resistive part, the device having a return path, the device being configured to operate in a radiofrequency mode and a resistive mode; means for occluding the body vessel at a position upstream of the treatment site such that the treatment site is substantially free of fluid flow; and a control unit adapted for: transmitting a radiofrequency signal from the coil to the return electrode to heat the body vessel, the resistive part being at a first temperature, the device being in the radiofrequency mode; detecting at least one change in the coil; and transmitting a current through the coil when the at least one change is detected to heat the resistive part to a second temperature greater than the first temperature and sufficient to occlude the body vessel, the device being in the resistive mode. transmitting a radiofrequency signal from the coil to the return electrode to heat the body vessel, the resistive part being at a first temperature, the device being in the radiofrequency mode; detecting at least one change in the coil; and transmitting a current through the coil when the at least one change is detected to heat the resistive part to a second temperature greater than the first temperature and sufficient to occlude the body vessel, the device being in the resistive mode.
A near field communications "NFC" device, comprising: an antenna circuit configured to receive a received communications signal to provide a recovered communications signal, the antenna circuit being tuned to receive the received communications signal; and near field operational components configured to recover information from the recovered communications signal, the near field operational components including: an overvoltage protection module configured to detune the antenna circuit to regulate a power level of the recovered communications signal, wherein the near field operational components are further configured to transfer second information to another NFC capable device; wherein the antenna circuit comprises: an antenna interface; and an inductive coupling element coupled to the antenna interface, the inductive coupling element being configured to receive the received communications signal; characterized by a notch filter being configured and arranged in parallel with the inductive coupling element, wherein the notch filter comprises an inductor, a capacitor and a resistance, said notch filter being adapted to filter unwanted emissions in a predetermined frequency band. an antenna circuit configured to receive a received communications signal to provide a recovered communications signal, the antenna circuit being tuned to receive the received communications signal; and near field operational components configured to recover information from the recovered communications signal, the near field operational components including: an overvoltage protection module configured to detune the antenna circuit to regulate a power level of the recovered communications signal, an overvoltage protection module configured to detune the antenna circuit to regulate a power level of the recovered communications signal, wherein the near field operational components are further configured to transfer second information to another NFC capable device; wherein the antenna circuit comprises: an antenna interface; and an inductive coupling element coupled to the antenna interface, the inductive coupling element being configured to receive the received communications signal; characterized by a notch filter being configured and arranged in parallel with the inductive coupling element, wherein the notch filter comprises an inductor, a capacitor and a resistance, said notch filter being adapted to filter unwanted emissions in a predetermined frequency band. an antenna interface; and an inductive coupling element coupled to the antenna interface, the inductive coupling element being configured to receive the received communications signal; characterized by a notch filter being configured and arranged in parallel with the inductive coupling element, wherein the notch filter comprises an inductor, a capacitor and a resistance, said notch filter being adapted to filter unwanted emissions in a predetermined frequency band.
A breaker fluid comprising: a hydrolysable ester of carboxylic acid; a chelant; an amount of water wherein the weight ratio of water to hydrolysable ester of carboxylic acid is less than 1.3; and an alkyl glycoside. a chelant; an amount of water wherein the weight ratio of water to hydrolysable ester of carboxylic acid is less than 1.3; and an alkyl glycoside.
A method of forming a flaked ready-to-eat cereal comprising the steps of: a.) forming a food mass by combining in a cooker grain and protein isolate and cooking said food mass in said cooker at a pressure of 137895.14 to 172368.93 Pascals (20 to 25 pounds per square inch); b.) adding to the food mass from step a.) water and gum acacia as processing aid and cooking at 137895.14 to 172368.93 Pascals (20 to 25 psi) until a moisture content of the food mass is from 30 to 36 weight percent, wherein the gum acacia is present in an amount of at least 3 wt%; c.) removing the cooked food mass from cooker and then cooling the cooked food mass and drying it to a moisture content of from 24 to 33 weight percent; d.) milling the cooked food mass through a screen having openings of from 0.32 to 1.59 cm (1/8 to 5/8 of an inch) in diameter and then further drying the milled food mass to a moisture content of from 20 to 26 weight percent; e.) combining the milled food mass with legumes and further water in a cold pellet former to form a combined mass and cold forming said combined mass into non-expanded pellets while maintaining said combined mass at a temperature of 37.78° C (100[deg.] F) or less; f.) drying the pellets to a moisture content of from 14 to 21 weight percent and then flaking them at a temperature of from 43.33°C to 65.56°C (110 to 150[deg.] F); and g.) drying and toasting the flakes to a final moisture content of from 1 to 5 weight percent. a.) forming a food mass by combining in a cooker grain and protein isolate and cooking said food mass in said cooker at a pressure of 137895.14 to 172368.93 Pascals (20 to 25 pounds per square inch); b.) adding to the food mass from step a.) water and gum acacia as processing aid and cooking at 137895.14 to 172368.93 Pascals (20 to 25 psi) until a moisture content of the food mass is from 30 to 36 weight percent, wherein the gum acacia is present in an amount of at least 3 wt%; c.) removing the cooked food mass from cooker and then cooling the cooked food mass and drying it to a moisture content of from 24 to 33 weight percent; d.) milling the cooked food mass through a screen having openings of from 0.32 to 1.59 cm (1/8 to 5/8 of an inch) in diameter and then further drying the milled food mass to a moisture content of from 20 to 26 weight percent; e.) combining the milled food mass with legumes and further water in a cold pellet former to form a combined mass and cold forming said combined mass into non-expanded pellets while maintaining said combined mass at a temperature of 37.78° C (100[deg.] F) or less; f.) drying the pellets to a moisture content of from 14 to 21 weight percent and then flaking them at a temperature of from 43.33°C to 65.56°C (110 to 150[deg.] F); and g.) drying and toasting the flakes to a final moisture content of from 1 to 5 weight percent.
A shielded electronic array, comprising: a main plate having opposing first and second major surfaces; first and second electronic devices disposed on respective first portions (210, 220) of the first and second major surfaces, respectively; a noise-shielding plate disposed on a second portion of the second major surface; an insulated eyelet, which is press-fittable into the main and noise-shielding plates; a first wiring component extending along a main plate plane from the second electronic device; and a second wiring component extending from the first wiring component to the first electronic device and having an exposed first portion and a second portion extending through the insulated eyelet. a main plate having opposing first and second major surfaces; first and second electronic devices disposed on respective first portions (210, 220) of the first and second major surfaces, respectively; a noise-shielding plate disposed on a second portion of the second major surface; an insulated eyelet, which is press-fittable into the main and noise-shielding plates; a first wiring component extending along a main plate plane from the second electronic device; and a second wiring component extending from the first wiring component to the first electronic device and having an exposed first portion and a second portion extending through the insulated eyelet.
A system for drilling, the system comprises: a rotary steerable system having a first shaft coupled to a second shaft by a universal joint, wherein the rotary steerable system further comprises an actuation system to pivot the drill bit about the universal joint with respect to the first shaft; a sensor system mounted on the rotary steerable system, the sensor system having a plurality of sensors positioned to measure weight on bit and torque on bit during a wellbore drilling operation, at least one sensor of the plurality of sensors being mounted within the universal joint to provide a direct measurement of forces acting on the universal joint; characterised in that, the at least one sensor comprises at least one sensor mounted on a cross member of the universal joint, at least two sensors mounted in holes formed in hinge pins of the universal joint, the at least two sensors being oriented perpendicularly to the direction of axial loading on the universal joint, or sensors mounted on at least one lug coupled to the universal joint. a rotary steerable system having a first shaft coupled to a second shaft by a universal joint, wherein the rotary steerable system further comprises an actuation system to pivot the drill bit about the universal joint with respect to the first shaft; a sensor system mounted on the rotary steerable system, the sensor system having a plurality of sensors positioned to measure weight on bit and torque on bit during a wellbore drilling operation, at least one sensor of the plurality of sensors being mounted within the universal joint to provide a direct measurement of forces acting on the universal joint; characterised in that, the at least one sensor comprises at least one sensor mounted on a cross member of the universal joint, at least two sensors mounted in holes formed in hinge pins of the universal joint, the at least two sensors being oriented perpendicularly to the direction of axial loading on the universal joint, or sensors mounted on at least one lug coupled to the universal joint.
A computer implemented method for low impact backup, comprising: starting processing of a task to backup or recover data to or from a production data storage; measuring a latency to access the production data storage; determining whether the latency is above a throttling threshold; when the latency is determined to exceed the throttling threshold: calculating a throttling value that defines an amount to throttle the processing of the task to backup or recover data to or from the production data storage; determining an amount of delay based on the throttling value; inserting sleep time within the task, wherein the sleep time is based at least in part on the determined amount of delay; and processing the modified task. starting processing of a task to backup or recover data to or from a production data storage; measuring a latency to access the production data storage; determining whether the latency is above a throttling threshold; when the latency is determined to exceed the throttling threshold: calculating a throttling value that defines an amount to throttle the processing of the task to backup or recover data to or from the production data storage; determining an amount of delay based on the throttling value; inserting sleep time within the task, wherein the sleep time is based at least in part on the determined amount of delay; and processing the modified task. calculating a throttling value that defines an amount to throttle the processing of the task to backup or recover data to or from the production data storage; determining an amount of delay based on the throttling value; inserting sleep time within the task, wherein the sleep time is based at least in part on the determined amount of delay; and processing the modified task.
Method for applying a structure, in particular a marking and/or inscription, to at least one element (12; 24) with a marking system, in particular a laser system, wherein the at least one element (12; 24) is firmly arranged relative to a shaft, characterised by the following steps: a) arranging the shaft or the shaft with the element (12; 24) arranged relative to the shaft in the marking system; b) determining a spatial position of the shaft and/or a centre of rotation of the shaft in relation to a reference point, preferably the zero point, of the marking system; c) applying the structure to the element (12; 24) taking into account the determination of the spatial position and/or the centre of rotation of the shaft. a) arranging the shaft or the shaft with the element (12; 24) arranged relative to the shaft in the marking system; b) determining a spatial position of the shaft and/or a centre of rotation of the shaft in relation to a reference point, preferably the zero point, of the marking system; c) applying the structure to the element (12; 24) taking into account the determination of the spatial position and/or the centre of rotation of the shaft.
Method for determining an oil level in the oil sump of an internal combustion engine in the start/stop mode, in which an oil level OA is detected by a sensor and the measured oil level OA is evaluated by a control unit with respect to a minimum permissible oil level characteristic value OM, which is dependent on the viscosity of the oil, being undershot, characterized in that a calculated oil level characteristic value or is also evaluated by the control unit with respect.to a minimum permissible oil level characteristic OM, which is dependent on the viscosity of the oil, being undershot and a warning device is actuated as a function of the evaluation, wherein the time period since the start ZB or the time period since the stop ZP of the internal combustion engine is taken into account in the calculation of the oil level characteristic value OK.
Household refrigeration appliance with at least one storage unit and with at least one retaining unit, which has at least one vertical rail element and at least one retaining element connected to the rail element and retaining the storage unit, wherein the retaining element is supported on the rail element in such a manner that its height can be adjusted in an at least essentially vertical direction, wherein the retaining unit has a slide element (54, 60), which is supported such that it can be moved in a guided manner along the rail element, wherein the slide element (54, 60) is connected to a fastening element (56, 62) of the retaining unit, characterised in that the fastening element (56, 62) is pushed into the retaining element laterally and wherein the retaining element is embodied as a rectangular retaining strip.
A retardation film comprising: a blend resin of 1) an acryl-based copolymer resin which is a copolymer resin consisting of methyl methacrylate and cyclohexyl methacrylate and 2) a polycarbonate-based resin comprising an aromatic ring or aliphatic ring in the main chain of the polycarbonate-based resin. a blend resin of 1) an acryl-based copolymer resin which is a copolymer resin consisting of methyl methacrylate and cyclohexyl methacrylate and 2) a polycarbonate-based resin comprising an aromatic ring or aliphatic ring in the main chain of the polycarbonate-based resin. 1) an acryl-based copolymer resin which is a copolymer resin consisting of methyl methacrylate and cyclohexyl methacrylate and 2) a polycarbonate-based resin comprising an aromatic ring or aliphatic ring in the main chain of the polycarbonate-based resin.
An aerosol-generating system comprising: a liquid storage portion, for holding liquid aerosol-forming substrate, a liquid pressure sensor provided within the liquid storage portion, and a control unit that is in communication with the liquid pressure sensor, the control unit being configured to determine the fill level of the liquid aerosol-forming substrate based on a pressure signal provided by the liquid pressure sensor, the aerosol-generating system further comprising an atmospheric pressure sensor in communication with the control unit, the atmospheric pressure sensor being configured for determining the atmospheric pressure of the environment, wherein the control unit is configured to receive the pressure signals from the liquid pressure sensor and the atmospheric pressure sensor, and wherein the control unit is further configured to determine the fill level of the liquid aerosol-forming substrate based on a comparison of these two pressure signals. a liquid storage portion, for holding liquid aerosol-forming substrate, a liquid pressure sensor provided within the liquid storage portion, and a control unit that is in communication with the liquid pressure sensor, the control unit being configured to determine the fill level of the liquid aerosol-forming substrate based on a pressure signal provided by the liquid pressure sensor, the aerosol-generating system further comprising an atmospheric pressure sensor in communication with the control unit, the atmospheric pressure sensor being configured for determining the atmospheric pressure of the environment, wherein the control unit is configured to receive the pressure signals from the liquid pressure sensor and the atmospheric pressure sensor, and wherein the control unit is further configured to determine the fill level of the liquid aerosol-forming substrate based on a comparison of these two pressure signals.
An aqueous solution of a nutrient for use in the enhancement of cognitive function in a subject, the solution comprising a water having content of deuterium from 90 to 135 ppm, wherein the content of 1 H 2 16 O isotopologue in the water is equal or less than 99.759%, and wherein the nutrient is the compound of formula