mhurhangee/ep-ind-claims huggingface dataset:
Unit for transportation of car brake discs comprising a collective packaging in the form of a transport box and comprising cases (2.1, 2.2, 2.3, 2.4) which are packages for individual brake discs, wherein each case contains at least one member for attaching it inside the transport box and is a flat container of width, height and depth corresponding to the dimensions of the car brake disc, and inside the transport box there is at least one member for attaching cases, the front wall of the case (2.1,2.2,2.3,2.4) containing a recess of width and height greater than the dimensions of a sleeve of a brake disc, characterised in that one vertical side wall of the case (2.1,2.2,2.3,2.4) is tiltable attached to the case, wherein in at least one of the other side case walls there is at least one seating unit for fixing the case (2.1,2.2,2.3,2.4) in the transport box.
A method for reducing the kaurenoic acid content of a steviol glycoside composition, which method comprises: providing a fermentation broth comprising a steviol glycoside composition which comprises kaurenoic acid; subjecting the fermentation broth to one or more of a solid/liquid separation, a cell disruption step, a chromatography step, a concentration step, or a crystallization step; combining the steviol glycoside composition with a solvent to form a steviol glycoside solution, wherein the solvent is an organic solvent comprising water in an amount of up to 25% by weight; and crystallizing a steviol glycoside composition from the steviol glycoside solution, wherein the crystallization is carried out at pH between 5.0 and a pH of about 3.8, thereby to reduce the amount of kaurenoic acid in the steviol glycoside composition, yielding a steviol glycoside composition which comprises less kaurenoic acid than the starting steviol glycoside composition, wherein the resulting steviol glycoside composition comprises kaurenoic acid in an amount of no more than 150 ppm, such as no more than 100 ppm, wherein the resulting steviol glycoside composition comprises at least 80% on a dry weight basis of at least one steviol glycoside selected from rebaudioside A, rebaudioside D and rebaudioside M. providing a fermentation broth comprising a steviol glycoside composition which comprises kaurenoic acid; subjecting the fermentation broth to one or more of a solid/liquid separation, a cell disruption step, a chromatography step, a concentration step, or a crystallization step; combining the steviol glycoside composition with a solvent to form a steviol glycoside solution, wherein the solvent is an organic solvent comprising water in an amount of up to 25% by weight; and crystallizing a steviol glycoside composition from the steviol glycoside solution, wherein the crystallization is carried out at pH between 5.0 and a pH of about 3.8, thereby to reduce the amount of kaurenoic acid in the steviol glycoside composition, yielding a steviol glycoside composition which comprises less kaurenoic acid than the starting steviol glycoside composition, wherein the resulting steviol glycoside composition comprises kaurenoic acid in an amount of no more than 150 ppm, such as no more than 100 ppm, wherein the resulting steviol glycoside composition comprises at least 80% on a dry weight basis of at least one steviol glycoside selected from rebaudioside A, rebaudioside D and rebaudioside M.
A railway turnout control method, comprising: constructing a data space corresponding to a railway turnout area; adding a virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11), in the data space, to a turnback area in which a target turnback stopping point is located; adding the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) to a railway turnout list corresponding to a route along which a train (a, c,) drives into the turnback area; and not releasing claim of the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) when the train stops at the target turnback stopping point. constructing a data space corresponding to a railway turnout area; adding a virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11), in the data space, to a turnback area in which a target turnback stopping point is located; adding the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) to a railway turnout list corresponding to a route along which a train (a, c,) drives into the turnback area; and not releasing claim of the virtual railway turnout (V1, V2, V3, V4, V6, V7, V9, V10, V11) when the train stops at the target turnback stopping point.
A system to automate pharmaceutical compounding comprising: a robotic arm to convey medical containers (1102,1104, 1106); a compounding system to transfer medicaments between the medical containers; the system being characterized in that if further comprises: a pulsed ultraviolet system configured to sanitize a portion of the medical containers; and a control module for the pulsed ultraviolet system, which is configured to transfer control information indicative of a medical container to be sanitized to the pulsed ultraviolet system, which triggers the pulsed ultraviolet system to generate a sanitizing profile tailored to sanitize a portion of the medical container. a robotic arm to convey medical containers (1102,1104, 1106); a compounding system to transfer medicaments between the medical containers; the system being characterized in that if further comprises: a pulsed ultraviolet system configured to sanitize a portion of the medical containers; and a control module for the pulsed ultraviolet system, which is configured to transfer control information indicative of a medical container to be sanitized to the pulsed ultraviolet system, which triggers the pulsed ultraviolet system to generate a sanitizing profile tailored to sanitize a portion of the medical container. a pulsed ultraviolet system configured to sanitize a portion of the medical containers; and a control module for the pulsed ultraviolet system, which is configured to transfer control information indicative of a medical container to be sanitized to the pulsed ultraviolet system, which triggers the pulsed ultraviolet system to generate a sanitizing profile tailored to sanitize a portion of the medical container.
A method for detecting and isolating an electromagnetic pulse ("EMP") along first phase, second phase, and third phase electrical lines electrically connected to a monitored infrastructure so as to protect the monitored infrastructure, said method for detecting and isolating comprising: a wire-mounted phase unit receiving electric signal data from a sensor electrically connected individually to each of the first phase, second phase, and third phase electrical lines, respectively, upstream of and associated with the monitored infrastructure; transmitting said received electric signal data to a base unit, positioned at the base of the monitored infrastructure, associated with said phase unit; said base unit receiving said transmitted received electric signal data; wherein said base unit is configured to confirm the operability of the phase units 600 and otherwise provide a failsafe backup of said phase units; and determining, by the phase unit, if said received electric signal data associated with said respective electrical line is indicative of an E1 component of an EMP and, if so, actuating an isolation subsystem in less than 300 nanoseconds to electrically isolate said respective electrical line against electrical communication with the monitored infrastructure. a wire-mounted phase unit receiving electric signal data from a sensor electrically connected individually to each of the first phase, second phase, and third phase electrical lines, respectively, upstream of and associated with the monitored infrastructure; transmitting said received electric signal data to a base unit, positioned at the base of the monitored infrastructure, associated with said phase unit; said base unit receiving said transmitted received electric signal data; wherein said base unit is configured to confirm the operability of the phase units 600 and otherwise provide a failsafe backup of said phase units; and determining, by the phase unit, if said received electric signal data associated with said respective electrical line is indicative of an E1 component of an EMP and, if so, actuating an isolation subsystem in less than 300 nanoseconds to electrically isolate said respective electrical line against electrical communication with the monitored infrastructure.
The use of a heat exchange system for an aircraft, the heat exchange system comprising: an inlet manifold and an outlet manifold with a direction of flow being upstream at the inlet manifold and downstream at the outlet manifold; a first heat exchanger core arranged between the inlet manifold and the outlet manifold and located adjacent the inlet manifold; a second heat exchanger core arranged downstream of the first heat exchanger core; a third heat exchanger core arranged downstream of the second heat exchanger core and located adjacent the outlet manifold, wherein the third heat exchanger core is fluidly connected to the first heat exchanger core; and a control system operably connected to the first heat exchanger core and the third heat exchanger core, wherein the control system is arranged to direct a fluid between the first and third heat exchanger cores; further comprising a first fluid within the first and third heat exchanger cores (206, 210) and a second fluid within the second heat exchanger core; and characterised in that the first fluid is polyalphaolefin and the second fluid is aircraft fuel. an inlet manifold and an outlet manifold with a direction of flow being upstream at the inlet manifold and downstream at the outlet manifold; a first heat exchanger core arranged between the inlet manifold and the outlet manifold and located adjacent the inlet manifold; a second heat exchanger core arranged downstream of the first heat exchanger core; a third heat exchanger core arranged downstream of the second heat exchanger core and located adjacent the outlet manifold, wherein the third heat exchanger core is fluidly connected to the first heat exchanger core; and a control system operably connected to the first heat exchanger core and the third heat exchanger core, wherein the control system is arranged to direct a fluid between the first and third heat exchanger cores; further comprising a first fluid within the first and third heat exchanger cores (206, 210) and a second fluid within the second heat exchanger core; and
Use of a soil conditioning additive in liquid, paste or powder form, to generate foam able to condition soil during mechanised excavations with a tunnel boring machine, comprising a surfactant including from 30 to 100% by weight of the surfactant of a salified alkyl ether sulphate surfactant having a straight or branched C7-C11 alkyl chain and a degree of ethoxylation ranging from 4 to 9, from 5 to 50% by weight of the surfactant of an acyl glutamate and 10 to 50 % by weight of the surfactant of alkyl polyglucosides, with the proviso that the total is 100.
A computer-implemented method for measuring the hearing health of a user, the method comprising: - transforming an audio sample into the frequency domain, - applying a first hearing profile to the audio sample to calculate the perceptually relevant information for the audio signal to generate a first perceptually relevant information rate (608, 610), - applying a second hearing profile to the audio sample to calculate the perceptually relevant information for the audio signal to generate a second perceptually relevant information rate (609, 611), - and comparing the first and second perceptually relevant information rates, wherein the first hearing profile is that of a healthy human listener and the second hearing profile is that of the user and wherein the hearing profiles comprise masking threshold (602, 604) and hearing threshold information (603, 605) to generate an index value indicative of the user's hearing health. - transforming an audio sample into the frequency domain, - applying a first hearing profile to the audio sample to calculate the perceptually relevant information for the audio signal to generate a first perceptually relevant information rate (608, 610), - applying a second hearing profile to the audio sample to calculate the perceptually relevant information for the audio signal to generate a second perceptually relevant information rate (609, 611), - and comparing the first and second perceptually relevant information rates, wherein the first hearing profile is that of a healthy human listener and the second hearing profile is that of the user and wherein the hearing profiles comprise masking threshold (602, 604) and hearing threshold information (603, 605) to generate an index value indicative of the user's hearing health.
A cold end header box (190, 820) of a furnace, comprising a first channel having a first channel supply port (244, 822) for communication with an inlet of a combustion air blower and a first pressure port (260,824) couplable to a first input of a pressure sensing device (195, 810), said combustion air blower and said pressure sensing device (195, 810) associated with said cold end header box (190, 820); and a second channel having a second channel supply port (246,826) for communication with said inlet of said combustion air blower, a second pressure port couplable to a second input (184, 814) of said pressure sensing device (195, 810), characterised in that the second channel has a a pressure reference inlet, said second channel in fluid communication with said first channel and configured to have about a same pressure as said first channel when said pressure reference inlet is blocked.
A roughening tool for roughening the cylindrical surface of a bore in a workpiece by producing a defined microstructure that is composed of a plurality of microgrooves extending circumferentially at an axial distance from one another, comprising a tool base body, which can be driven so as to rotate about a rotational axis, a plurality of circumferentially cutting cutting tools, which are arranged on the tool base body at a defined axial distance from one another, characterized in that the cutting tools are respectively formed by a side milling cutter (21 - 33), wherein each side milling cutter (21 - 33) comprises a plurality of cutting elements (21b - 33b), which are arranged at identical angular distances from one another in the circumferential direction, each side milling cutter (21 - 33) comprises cutting elements (21b - 33b) with a plurality of cutting teeth that are arranged at an axial distance from one another, and the cutting teeth of the cutting elements (21b - 33b) of each side milling cutter (21 - 33) are arranged in alignment in the circumferential direction. a tool base body, which can be driven so as to rotate about a rotational axis, a plurality of circumferentially cutting cutting tools, which are arranged on the tool base body at a defined axial distance from one another, characterized in that the cutting tools are respectively formed by a side milling cutter (21 - 33), wherein each side milling cutter (21 - 33) comprises a plurality of cutting elements (21b - 33b), which are arranged at identical angular distances from one another in the circumferential direction, each side milling cutter (21 - 33) comprises cutting elements (21b - 33b) with a plurality of cutting teeth that are arranged at an axial distance from one another, and the cutting teeth of the cutting elements (21b - 33b) of each side milling cutter (21 - 33) are arranged in alignment in the circumferential direction.
Clamping device for clamping a component on a component carrier by means of an adhesive, wherein the clamping device has a plurality of adapters (16, 18; 42) guided respectively in a guide (20, 22) of the component carrier for fixing the component to the component carrier, said adapters (16, 18; 42) each having an adhesive surface for the production of an adhesive bond with the component, characterised in that the adhesive can be distributed via an internal channel system of the adapters (16, 18, 42) inserted into the guides (20, 22).
A method of forming a protective coating on a surface of a metal article comprising aluminum or aluminum alloy, said method comprising: A) providing an acidic anodizing solution comprised of water, a phosphorus containing acid and/or salt and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides of elements selected from the group consisting of Ti and Zr and mixtures thereof, wherein the phosphorus concentration is at least 0.01 M but not more than 1.0 M; B) providing a cathode in contact with said anodizing solution; C) placing a metal article comprising aluminum or aluminum alloy as an anode in said anodizing solution; D) passing a non-pulsed direct current at voltages from 200 to 600 volts or a pulsed direct current with a peak voltage of not more than 600 volts or an alternating current with a voltage from 200 to 600 volts between the anode and cathode through said anodizing solution for a time effective to form a first protective coating on the surface of the metal article with a coating thickness in the range from 1 to 20 μm; E) removing the metal article having a first protective coating from the anodizing solution and drying said article; and F) applying one or more layers of paint to the metal article having a first protective coating, at least one of the layers comprising PTFE or silicone, to form a second protective coating. A) providing an acidic anodizing solution comprised of water, a phosphorus containing acid and/or salt and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides of elements selected from the group consisting of Ti and Zr and mixtures thereof, wherein the phosphorus concentration is at least 0.01 M but not more than 1.0 M; a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides B) providing a cathode in contact with said anodizing solution; C) placing a metal article comprising aluminum or aluminum alloy as an anode in said anodizing solution; D) passing a non-pulsed direct current at voltages from 200 to 600 volts or a pulsed direct current with a peak voltage of not more than 600 volts or an alternating current with a voltage from 200 to 600 volts between the anode and cathode through said anodizing solution for a time effective to form a first protective coating on the surface of the metal article with a coating thickness in the range from 1 to 20 μm; E) removing the metal article having a first protective coating from the anodizing solution and drying said article; and F) applying one or more layers of paint to the metal article having a first protective coating, at least one of the layers comprising PTFE or silicone, to form a second protective coating.
A system for controlling a prosthetic or orthotic device, the system comprising: a foot portion; a shank portion coupled to the foot portion, the foot portion and the shank portion forming a joint having a neutral angle that is used during a first gait phase of a gait cycle to adjust a joint angle between the foot portion and the shank portion; at least one first sensor configured to measure electromyography signals from a first muscle over a period of time; a controller configured to receive a first EMG signal from the at least one first sensor and to determine an adjusted neutral angle based at least in part on the first EMG signal, wherein the adjusted neutral angle is configured for use during a second gait phase of the gait cycle, wherein the second gait phase is implemented after the first gait phase; and at least one actuator communicatively coupled to the controller, the at least one actuator configured to actuate the foot portion with respect to the shank portion such that the adjusted neutral angle is used during a second gait phase of the gait cycle to adjust the joint angle between the foot portion and the shank portion. a foot portion; a shank portion coupled to the foot portion, the foot portion and the shank portion forming a joint having a neutral angle that is used during a first gait phase of a gait cycle to adjust a joint angle between the foot portion and the shank portion; at least one first sensor configured to measure electromyography signals from a first muscle over a period of time; a controller configured to receive a first EMG signal from the at least one first sensor and to determine an adjusted neutral angle based at least in part on the first EMG signal, wherein the adjusted neutral angle is configured for use during a second gait phase of the gait cycle, wherein the second gait phase is implemented after the first gait phase; and at least one actuator communicatively coupled to the controller, the at least one actuator configured to actuate the foot portion with respect to the shank portion such that the adjusted neutral angle is used during a second gait phase of the gait cycle to adjust the joint angle between the foot portion and the shank portion.
A process for the refining of crude tall oil, comprising a pre-treatment step involving washing and separation of impurities, said washing involving contacting the CTO with water in an amount of below 5 wt.% on incoming CTO, said pre-treatment step comprising removal of contaminants from the CTO by centrifugation and/or filtering, forming a first refined CTO stream, followed by a step for removal of water and volatiles in a steam stripper or a thin-film evaporator, thereby forming a second refined and substantially volatiles free CTO stream, wherein the second refined and substantially volatiles free CTO stream is further processed in a thin-film evaporator under vacuum to separate and remove a tall oil pitch stream formed, as a liquid stream, and yielding a third refined CTO stream, being a gaseous stream comprising fatty acids and resin acids, charged to a fractionation tower operating under vacuum at 1-25 mbar, preferably 1-10 mbar, thereafter condensed to yield at least one liquid stream of refined tall diesel, said RTD comprising from 2 - 30 % by volume of resin acids and from 20 - 90 % by volume of fatty acids and, wherein a RTD fraction rich in fatty acids is withdrawn from the upper part of the tower and a RA rich fraction comprising less than 5 % by volume of fatty acids is withdrawn from the bottom of the tower, and wherein the stream of RTD is deoxygenated forming hydrocarbon compounds in a subsequent step.