mhurhangee/patent-ind-claim-en huggingface dataset:
Test device for the semi-quantitative determination of chlorine dioxide in a liquid sample, the test device comprising a first carrier matrix containing at least one amino acid, at least one redox indicator, buffer substances and at least one surfactant, characterized in that the test device comprises at least two carrier matrices , the first carrier matrix containing sodium thiosulfate, in that the second carrier matrix contains at least one inorganic iodide salt, starch and/or at least one starch derivative, sodium thiosulfate, buffer substances and at least one surfactant, and in that the compositions of the carrier matrices are selected in such a way that the measuring range 10-2000 mg/L chlorine dioxide is covered by the first carrier matrix and the measuring range 2000-3500 mg/L chlorine dioxide is covered by the second carrier matrix .
A water-soluble film, comprising: a polyvinyl alcohol resin (A); and a plasticizer (B), wherein the plasticizer (B) contains a polyhydric alcohol (b1) having a melting point of 80°C or more, a polyhydric alcohol (b2) having a melting point of 50°C or less, and a polyhydric alcohol (b3) having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol (b1) is sorbitol, the polyhydric alcohol (b2) is glycerin, and the polyhydric alcohol (b3) is trimethylolpropane, and wherein the content ratio (X) of the polyhydric alcohol (b3) with respect to a total amount of the polyhydric alcohol (b1), the polyhydric alcohol (b2), and the polyhydric alcohol (b3) is 15 wt. % or less. a polyvinyl alcohol resin (A); and a plasticizer (B), wherein the plasticizer (B) contains a polyhydric alcohol (b1) having a melting point of 80°C or more, a polyhydric alcohol (b2) having a melting point of 50°C or less, and a polyhydric alcohol (b3) having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol (b1) is sorbitol, the polyhydric alcohol (b2) is glycerin, and the polyhydric alcohol (b3) is trimethylolpropane, and wherein the content ratio (X) of the polyhydric alcohol (b3) with respect to a total amount of the polyhydric alcohol (b1), the polyhydric alcohol (b2), and the polyhydric alcohol (b3) is 15 wt. % or less. a polyhydric alcohol (b1) having a melting point of 80°C or more, a polyhydric alcohol (b2) having a melting point of 50°C or less, and a polyhydric alcohol (b3) having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol (b1) is sorbitol, the polyhydric alcohol (b2) is glycerin, and the polyhydric alcohol (b3) is trimethylolpropane, and wherein the content ratio (X) of the polyhydric alcohol (b3) with respect to a total amount of the polyhydric alcohol (b1), the polyhydric alcohol (b2), and the polyhydric alcohol (b3) is 15 wt. % or less.
A total organic carbon (TOC) analyzer comprising: one or more processors ; and a memory communicably coupled to the one or more processors and storing instructions that when executed by the one or more processors cause the analyzer to: receive a sample having a known TOC value and a known conductivity value, wherein the sample comprises an organic acid; measure a TOC of the sample; and measure a conductivity of the sample. one or more processors ; and a memory communicably coupled to the one or more processors and storing instructions that when executed by the one or more processors cause the analyzer to: receive a sample having a known TOC value and a known conductivity value, wherein the sample comprises an organic acid; measure a TOC of the sample; and measure a conductivity of the sample. receive a sample having a known TOC value and a known conductivity value, wherein the sample comprises an organic acid; measure a TOC of the sample; and measure a conductivity of the sample. measure a TOC of the sample; and measure a conductivity of the sample.
A charging control circuit , characterized by comprising a communications interface housing , a communications interface , and a control sub-circuit , wherein the communications interface housing comprises a first conductive part , a second conductive part , and an insulating part , and the insulating part is disposed between the first conductive part and the second conductive part , and insulates the first conductive part from the second conductive part ; the first conductive part is connected to a first voltage terminal, and the first voltage terminal is configured to access a first voltage; the second conductive part is connected to a second voltage terminal, the second voltage terminal is configured to access a second voltage, and the first voltage is greater than the second voltage; and the control sub-circuit is connected to the first conductive part and the communications interface , and is configured to control, when it is detected that a voltage of the first conductive part changes from the first voltage to the second voltage, starting of a power supply apparatus electrically connected to the communications interface , so that the power supply apparatus provides a charging voltage to the communications interface ; wherein the voltage of the first conductive part changes from the first voltage to the second voltage when the communications interface accesses a load which conducts the first conductive part with the second conductive part . the communications interface housing comprises a first conductive part , a second conductive part , and an insulating part , and the insulating part is disposed between the first conductive part and the second conductive part , and insulates the first conductive part from the second conductive part ; the first conductive part is connected to a first voltage terminal, and the first voltage terminal is configured to access a first voltage; the second conductive part is connected to a second voltage terminal, the second voltage terminal is configured to access a second voltage, and the first voltage is greater than the second voltage; and the control sub-circuit is connected to the first conductive part and the communications interface , and is configured to control, when it is detected that a voltage of the first conductive part changes from the first voltage to the second voltage, starting of a power supply apparatus electrically connected to the communications interface , so that the power supply apparatus provides a charging voltage to the communications interface ; wherein the voltage of the first conductive part changes from the first voltage to the second voltage when the communications interface accesses a load which conducts the first conductive part with the second conductive part .
Stereo microphone unit comprising a first and a second interference tube which are arranged at an angle (α) relative to each other and respectively have a first end and a second end , a first and a second microphone capsule (MK1, MK2) for detecting an audio signal, which are respectively provided at an end of the first and second interference tube , a securing unit for jointly securing the first and second interference tubes in particular to a mobile device or to a stand, and a cover as a wind protector which is connected to the securing unit and which completely encloses the first and second interference tubes in an intercommunicating volume, wherein the cover is configured such that a joint use of the overall volume serves as a calming zone for wind turbulences for the first and second interference tube , wherein the cover has a first and a second end , wherein the second end is wider than the first end , wherein the second ends of the first and second interference tubes are provided in the region of the first end of the cover .
A purge air regulating unit for a drying device for compressed air (A), wherein said purge air regulating unit can be connected to a housing , in which a bundle of hollow fiber membranes is arranged, in such a way that a sub-flow of dried compressed air (B) flowing out of the housing through an outlet channel can be conducted back to the hollow fiber membranes in the form of purge air (C) by the purge air regulating unit , wherein the purge air regulating unit comprises - a regulating unit with a temperature sensor for detecting the temperature of the dried compressed air (B), and - a control valve that is regulated by the regulating unit and at least partly opens or closes a purge air channel for conducting the purge air (C), characterized in that the regulating unit is designed for calculating a pressure dew point of the dried compressed air (B) and has a dew point sensor for detecting the dew point of the dried compressed air (B), and in that the control valve at least partly opens or closes the purge air channel for conducting the purge air (C) in dependence on the pressure dew point of the dried compressed air (B). wherein the purge air regulating unit comprises - a regulating unit with a temperature sensor for detecting the temperature of the dried compressed air (B), and - a control valve that is regulated by the regulating unit and at least partly opens or closes a purge air channel for conducting the purge air (C), - a regulating unit with a temperature sensor for detecting the temperature of the dried compressed air (B), and - a control valve that is regulated by the regulating unit and at least partly opens or closes a purge air channel for conducting the purge air (C), characterized in that the regulating unit is designed for calculating a pressure dew point of the dried compressed air (B) and has a dew point sensor for detecting the dew point of the dried compressed air (B), and in that the control valve at least partly opens or closes the purge air channel for conducting the purge air (C) in dependence on the pressure dew point of the dried compressed air (B).
A control system for a pipeline that transports a process fluid, the control system comprising: a heating system that applies thermal energy to the pipeline to increase a temperature of the process fluid; a sensor network configured to record pipeline data for the pipeline, the sensor network comprising a fluid temperature sensor positioned to detect the temperature of the process fluid at one or more locations in the pipeline; and a controller in electronic communication with the sensor network, the controller comprising a processor and memory storing specific computer-executable instructions that, when executed by the processor, cause the controller to: receive the pipeline data; identify, in the pipeline data generated by the fluid temperature sensor, a latent heat signature of the process fluid, the latent heat signature indicating a solidification of the process fluid in the pipeline, wherein to identify the latent heat signature, the controller analyses spatio-temporal temperature data from the sensor network with a predictive model to determine that a latent heat signature is present in the temperature data; and automatically initiate a process that causes the heating system to apply additional thermal energy to the pipeline to melt the process fluid that has solidified. a heating system that applies thermal energy to the pipeline to increase a temperature of the process fluid; a sensor network configured to record pipeline data for the pipeline, the sensor network comprising a fluid temperature sensor positioned to detect the temperature of the process fluid at one or more locations in the pipeline; and a controller in electronic communication with the sensor network, the controller comprising a processor and memory storing specific computer-executable instructions that, when executed by the processor, cause the controller to: receive the pipeline data; identify, in the pipeline data generated by the fluid temperature sensor, a latent heat signature of the process fluid, the latent heat signature indicating a solidification of the process fluid in the pipeline, wherein to identify the latent heat signature, the controller analyses spatio-temporal temperature data from the sensor network with a predictive model to determine that a latent heat signature is present in the temperature data; and automatically initiate a process that causes the heating system to apply additional thermal energy to the pipeline to melt the process fluid that has solidified. receive the pipeline data; identify, in the pipeline data generated by the fluid temperature sensor, a latent heat signature of the process fluid, the latent heat signature indicating a solidification of the process fluid in the pipeline, wherein to identify the latent heat signature, the controller analyses spatio-temporal temperature data from the sensor network with a predictive model to determine that a latent heat signature is present in the temperature data; and automatically initiate a process that causes the heating system to apply additional thermal energy to the pipeline to melt the process fluid that has solidified.
A turbine section of a turbomachine comprising: a rotating group with a turbine wheel ; a housing that houses and supports the rotating group for rotation about an axis, the housing defining a circumferential inlet passage that extends about the axis, the housing defining a turbine wheel upstream area that is disposed downstream of the circumferential inlet passage and upstream of the turbine wheel, the housing defining an outlet that is downstream of the turbine wheel; a first flow path that extends from the circumferential inlet passage, through the turbine wheel upstream area, across the turbine wheel, to the outlet; and a recirculation flow path that extends from the circumferential inlet passage, through the turbine wheel upstream area, and back to the circumferential inlet passage. a rotating group with a turbine wheel ; a housing that houses and supports the rotating group for rotation about an axis, the housing defining a circumferential inlet passage that extends about the axis, the housing defining a turbine wheel upstream area that is disposed downstream of the circumferential inlet passage and upstream of the turbine wheel, the housing defining an outlet that is downstream of the turbine wheel; a first flow path that extends from the circumferential inlet passage, through the turbine wheel upstream area, across the turbine wheel, to the outlet; and a recirculation flow path that extends from the circumferential inlet passage, through the turbine wheel upstream area, and back to the circumferential inlet passage.
An enhanced adjustment device for a spindle of a grinding machine for machining flat sheets applied to a motorization assembly used to motorize a grinding tool secured to the spindle slidable constrained to a support structure of said grinding machine by way of a guide to which said device is indirectly connected via a transmission shaft and an angular gear box coupled with said transmission shaft, the device being suitable for enabling/disabling an automatic/manual incremental displacement of said grinding tool with respect to an edge of a flat sheet for compensating for the wear of said tool, characterized in that it comprises a sleeve coaxially put on and slidable with respect to a shaft coupled with the transmission shaft of the guide , being automatically/manually operated, with respect to the shaft by means of a first wheel which couples with a second wheel of the transmission shaft , a container element or box and a motor secured to said container element or box and connected to the shaft rotatably arranged internally to said container element or box and driven into rotation by way of a further shaft arranged internally and coaxially to an axial cavity of the shaft , said shaft comprising at least one through opening formed on the lateral surface and the further shaft comprising at least one pocket formed on the outer lateral surface in correspondence with the through opening and developing in the thickness of said further shaft according to a radial direction, said through opening and pocket defining a seat for accommodating a sphere suitable for making said shaft rotationally integral with said further shaft , wherein in an automatic adjustment configuration, the sphere is positioned in the seat defined by the pocket of the further shaft and by the through opening of the shaft to make said shaft and further shaft driven into rotation by the motor integral with each other, and in that , in a manual adjustment configuration, the sleeve is made axially slide with respect to the shaft and is positioned with the a pocket circumferentially developing along a inner lateral surface of the sleeve in correspondence with the through opening to accommodate the sphere in said pocket and to disconnect said shaft from the further shaft .
An electrochemical cell , comprising: a semi-solid cathode material including a suspension of an active material and a conductive material in a non-aqueous liquid electrolyte, the semi-solid cathode material having 60% to 80% by weight of an active material, 1% to 6% by weight of a conductive material, and 20% to 40% by weight of a non-aqueous liquid electrolyte, and the semi-solid cathode material thickness being in the range of 250 μm to 2,000 μm, the semi-solid cathode material disposed on a cathode current collector; an anode including a lithium-alloy-forming compound including at least one of tin, tin alloys, silicon, silicon alloys, antimony, aluminum and titanium oxide, the anode having a capacity in the range of 700 mAh/g to 1,200 mAh/g and a thickness in the range of 30 μm to 600 μm, the thickness of the semi-solid cathode material at least three times the thickness of the anode , the anode disposed on an anode current collector; and a separator disposed between the anode and the semi-solid cathode material . a semi-solid cathode material including a suspension of an active material and a conductive material in a non-aqueous liquid electrolyte, the semi-solid cathode material having 60% to 80% by weight of an active material, 1% to 6% by weight of a conductive material, and 20% to 40% by weight of a non-aqueous liquid electrolyte, and the semi-solid cathode material thickness being in the range of 250 μm to 2,000 μm, the semi-solid cathode material disposed on a cathode current collector; an anode including a lithium-alloy-forming compound including at least one of tin, tin alloys, silicon, silicon alloys, antimony, aluminum and titanium oxide, the anode having a capacity in the range of 700 mAh/g to 1,200 mAh/g and a thickness in the range of 30 μm to 600 μm, the thickness of the semi-solid cathode material at least three times the thickness of the anode , the anode disposed on an anode current collector; and a separator disposed between the anode and the semi-solid cathode material .
A multi-planar taper lock screw comprising a screw with a spherically configured screw head , an inner housing and an outer housing slidable proximally and distally over the inner housing , the inner housing configured pivotably to contain the spherically configured screw head and a removable connecting rod above the head, characterized in that the outer housing is adapted to be selectively positioned by limited proximal sliding to lock only the screw head in position while permitting a sliding and rotating motion of the connecting rod about its long axis within the inner housing, and is adapted to be selectively positioned by continued proximal sliding to fully lock the screw head and the connecting rod in position within the inner housing.
A multilayer composite interior component comprising: a first member ; and a second member that is arranged on the first member , wherein the second member is formed using a plurality of separate molds , the second member includes a plurality of general projections , each projecting toward the first member , wherein the general projections are bent by contact with the first member , and a plurality of boundary projections located between a mold separation line (L) of the separate molds and the general projections and projecting toward the first member , wherein the boundary projections are bent by contact with the first member , the boundary projections are arranged at equal intervals in rows along the mold separation line (L) at opposite sides of the mold separation line (L), and each interval of the boundary projections is shorter than a distance between the general projections located adjacent to each other along the mold separation line (L). a first member ; and a second member that is arranged on the first member , wherein the second member is formed using a plurality of separate molds , the second member includes a plurality of general projections , each projecting toward the first member , wherein the general projections are bent by contact with the first member , and a plurality of boundary projections located between a mold separation line (L) of the separate molds and the general projections and projecting toward the first member , wherein the boundary projections are bent by contact with the first member , a plurality of general projections , each projecting toward the first member , wherein the general projections are bent by contact with the first member , and a plurality of boundary projections located between a mold separation line (L) of the separate molds and the general projections and projecting toward the first member , wherein the boundary projections are bent by contact with the first member , the boundary projections are arranged at equal intervals in rows along the mold separation line (L) at opposite sides of the mold separation line (L), and each interval of the boundary projections is shorter than a distance between the general projections located adjacent to each other along the mold separation line (L).
A pancreatin produced by a method comprising the steps of: (a) subjecting intact mammalian pancreatic tissue to electron beam radiation to produce irradiated pancreatic tissue, wherein the electron beam radiation is sufficient to produce at least a three log 10 reduction in viral load of a model virus compared to a control sample; and (b) isolating pancreatin from the irradiated pancreatic tissue. (a) subjecting intact mammalian pancreatic tissue to electron beam radiation to produce irradiated pancreatic tissue, wherein the electron beam radiation is sufficient to produce at least a three log 10 reduction in viral load of a model virus compared to a control sample; and (b) isolating pancreatin from the irradiated pancreatic tissue.