mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically optimizing alarm configuration parameters in a control system of a power plant or production plant using a data processing device which has access to predefined alarm configuration parameters, to historical process measured values and to test and assessment criteria for alarm characteristic values, in which the historical process measured values are available as recordings in a process database or a process information management system and in which a) in a first step, the historical process measured values are evaluated for a selected period of time in the past using suitable calculation methods and taking into account the predefined alarm configuration parameters, and alarm characteristic values are determined, b) in a second step, the alarm characteristic values which have been determined are assessed taking into account the test and assessment criteria for alarm characteristic values, and, if the alarm characteristic values meet the requirements according to the test and assessment criteria for alarm characteristic values, the predefined alarm configuration parameters are output as optimized alarm configuration parameters and the method sequence is ended, otherwise, c) in a third step, new alarm configuration parameters are calculated using optimization algorithms, and the method sequence is continued by carrying out the method steps again, the new alarm configuration parameters being used as predefined alarm configuration parameters. a) in a first step, the historical process measured values are evaluated for a selected period of time in the past using suitable calculation methods and taking into account the predefined alarm configuration parameters, and alarm characteristic values are determined, b) in a second step, the alarm characteristic values which have been determined are assessed taking into account the test and assessment criteria for alarm characteristic values, and, if the alarm characteristic values meet the requirements according to the test and assessment criteria for alarm characteristic values, the predefined alarm configuration parameters are output as optimized alarm configuration parameters and the method sequence is ended, otherwise, c) in a third step, new alarm configuration parameters are calculated using optimization algorithms, and the method sequence is continued by carrying out the method steps again, the new alarm configuration parameters being used as predefined alarm configuration parameters.
A linear compressor having a piston part and a cylinder part reciprocal relative to one another, and a spring connecting between said piston part and said cylinder part, wherein the spring has at least a pair of first mounting points (60, 61) for securement of said spring to the cylinder part and at least one second mounting point for securement to the piston part, the spring also having a spring arm spanning a path between said first mounting points by way of said second mounting point, at least a first section of the spring arm having a curve with a substantially constant radius of curvature around one of said first mounting points and a second section of the spring arm having a curve with a substantially constant radius of curvature around another of said first mounting points, characterised by said first section and said second section meeting between said first mounting points at said second mounting point, wherein the spring has a general circle shape with the first and second sections on the circle.
Actuator arrangement for operating a clutch and a parking lock in a driveline of a motor vehicle, comprising: a clutch having a rotatably drivable clutch input part, a clutch output part and a clutch actuating member configured to drivingly connect or disconnect the clutch input part and the clutch output part to or from each other; a parking lock with a ratchet wheel which is connected in a rotationally fixed manner to a drive shaft drivingly connected to the clutch output part, a locking element which cooperates with the ratchet wheel and is movable into a locking position in which the locking element locks the ratchet wheel, and into a release position in which the locking element releases the ratchet wheel, and a parking lock actuating member for actuating the locking element; a controllable actuator with a movable actuator setting member which is transferable into at least three setting positions (S1, S2, S0) and is operatively connected to the clutch actuating member and to the parking lock actuating member such, that in a first setting position the parking lock is closed, in a second setting position the parking lock is open and the clutch is closed, and in a third setting position the clutch and the parking lock are open, characterized in that that the actuator setting member has a toothing which engages a rotatingly drivable ring for actuating the clutch. a clutch having a rotatably drivable clutch input part, a clutch output part and a clutch actuating member configured to drivingly connect or disconnect the clutch input part and the clutch output part to or from each other; a parking lock with a ratchet wheel which is connected in a rotationally fixed manner to a drive shaft drivingly connected to the clutch output part, a locking element which cooperates with the ratchet wheel and is movable into a locking position in which the locking element locks the ratchet wheel, and into a release position in which the locking element releases the ratchet wheel, and a parking lock actuating member for actuating the locking element; a controllable actuator with a movable actuator setting member which is transferable into at least three setting positions (S1, S2, S0) and is operatively connected to the clutch actuating member and to the parking lock actuating member such, that in a first setting position the parking lock is closed, in a second setting position the parking lock is open and the clutch is closed, and in a third setting position the clutch and the parking lock are open, characterized in that that the actuator setting member has a toothing which engages a rotatingly drivable ring for actuating the clutch.
A composition comprising a blood plasma or serum component separated from blood cells, leukocytes, cell fragments and platelets; and a silk protein as active ingredients for use in the treatment of a wound.
A product dispensing machine, comprising: a container for storing a base product; a freeze circuit constructed and arranged to extract a first portion of the base product from the container and substantially freeze the first portion into a first consistency, wherein the freeze circuit is in fluid communication with the container; a liquid circuit constructed and arranged to extract a second portion of the base product from the container, wherein the liquid circuit is in fluid communication with the container, and wherein the first and second portions comprise a liquid form of the base product; a blending chamber assembly in fluid communication with the freeze and liquid circuits (28, 30), and constructed and arranged to blend the first and second portions into a second consistency; and a dispensing assembly in fluid communication with the blending chamber assembly, and constructed and arranged to selectively dispense the first portion in the first consistency, and the first and second portions in the second consistency. a container for storing a base product; a freeze circuit constructed and arranged to extract a first portion of the base product from the container and substantially freeze the first portion into a first consistency, wherein the freeze circuit is in fluid communication with the container; a liquid circuit constructed and arranged to extract a second portion of the base product from the container, wherein the liquid circuit is in fluid communication with the container, and wherein the first and second portions comprise a liquid form of the base product; a blending chamber assembly in fluid communication with the freeze and liquid circuits (28, 30), and constructed and arranged to blend the first and second portions into a second consistency; and a dispensing assembly in fluid communication with the blending chamber assembly, and constructed and arranged to selectively dispense the first portion in the first consistency, and the first and second portions in the second consistency.
A method for manufacturing a rotor of an electrical machine, the method comprising: assembling an array of non-magnetized anisotropic permanent magnet segments around a rotor spindle, the non-magnetized anisotropic permanent magnet segments being encased in a retaining ring; determining a plurality of optimal magnetization orientation directions of the non-magnetized anisotropic permanent magnet segments; positioning the assembled non-magnetized anisotropic permanent magnet segments around the rotor spindle such that the optimal magnetization orientation directions of the anisotropic permanent magnet segments are aligned with a plurality of flux lines produced by a magnetization fixture; and energizing the magnetization fixture for magnetizing the segments via a pulse direct current for a time period T RISE for ensuring complete magnetic flux penetration in the retaining ring and magnetic segments, characterized in that said energizing comprises electrical connection of a power source (48, 102) to the magnetization fixture for an amount of time given by: T RISE = 25 T RR 2 πμ ρ where T RR is the retaining ring thickness, μ is the magnetic permeability and ρ is the resistivity of the retaining ring; at which time the flow of current from the power source (48, 102) is stopped. assembling an array of non-magnetized anisotropic permanent magnet segments around a rotor spindle, the non-magnetized anisotropic permanent magnet segments being encased in a retaining ring; determining a plurality of optimal magnetization orientation directions of the non-magnetized anisotropic permanent magnet segments; positioning the assembled non-magnetized anisotropic permanent magnet segments around the rotor spindle such that the optimal magnetization orientation directions of the anisotropic permanent magnet segments are aligned with a plurality of flux lines produced by a magnetization fixture; and energizing the magnetization fixture for magnetizing the segments via a pulse direct current for a time period T RISE for ensuring complete magnetic flux penetration in the retaining ring and magnetic segments, characterized in that said energizing comprises electrical connection of a power source (48, 102) to the magnetization fixture for an amount of time given by: T RISE = 25 T RR 2 πμ ρ where T RR is the retaining ring thickness, μ is the magnetic permeability and ρ is the resistivity of the retaining ring; at which time the flow of current from the power source (48, 102) is stopped.
A method for the preparation of a non-aqueous electrolyte battery electrode comprising the steps of (a) preparing/providing a lithium composite oxide, (b) measuring the particle size distribution of the lithium composite oxide obtained in step (a), (c) measuring the specific surface area of the lithium composite oxide obtained in step (a) by the BET method, (d) measuring the density of the lithium composite oxide obtained in step (a), (e) selecting a lithium composite oxide satisfying the relationship 1.5 ≤ Sa/Sc ≤ 10, wherein Sa represents the specific surface area of the lithium composite oxide as measured by the BET method in step (c), and Sc is a value defined by the following formula: Sc = 6 d ⁢ ∫ 0 ∞ ⁢ f r r ⁢ dr wherein a particle diameter of the lithium composite oxide is represented by r, a particle size distribution of the lithium composite oxide is represented by f(r), and a density of said lithium composite oxide is represented by d, (f) preparing a coating material comprising the lithium composite oxide selected in step (e), (g) applying the coating material prepared in step (f) onto a collector, and, optionally, drying the coated material. (a) preparing/providing a lithium composite oxide, (b) measuring the particle size distribution of the lithium composite oxide obtained in step (a), (c) measuring the specific surface area of the lithium composite oxide obtained in step (a) by the BET method, (d) measuring the density of the lithium composite oxide obtained in step (a), (e) selecting a lithium composite oxide satisfying the relationship 1.5 ≤ Sa/Sc ≤ 10, wherein Sa represents the specific surface area of the lithium composite oxide as measured by the BET method in step (c), and Sc is a value defined by the following formula: Sc = 6 d ⁢ ∫ 0 ∞ ⁢ f r r ⁢ dr wherein a particle diameter of the lithium composite oxide is represented by r, a particle size distribution of the lithium composite oxide is represented by f(r), and a density of said lithium composite oxide is represented by d, (f) preparing a coating material comprising the lithium composite oxide selected in step (e), (g) applying the coating material prepared in step (f) onto a collector, and, optionally, drying the coated material.
A method for operating a least one lighting means, such as, for example, an LED, OLED or gas discharge lamp, wherein - the lighting means is operated based on an inverter circuit or a half bridge or full bridge circuit, - a measurement signal, that represents the current through the bridge circuit and/or a measurement signal, that represents the lamp current, is/are supplied to an input (SDV lamp / SDVI lamp) of the control circuit, and - a measurement signal, that represents the voltage across the at least one lighting means, is supplied to the same input of the control circuit, - wherein the supplied measurement signals are used for lamp monitoring, - wherein the control circuit evaluates the supplied measurement signals for detecting faults and/or for operating the lighting means, in particular, for adjusting a parameter representing the output of the lighting means, - wherein a fault condition is a half-bridge current, which increases at the time of the switching off of the lower-potential switch of the half bridge or is in an invalid range, and - wherein the control frequency of the alternating clocking of the switch (Q1, Q2) of the half bridge is increased as a response to the detected fault condition, until no capacitive operation is detected any longer. - the lighting means is operated based on an inverter circuit or a half bridge or full bridge circuit, - a measurement signal, that represents the current through the bridge circuit and/or a measurement signal, that represents the lamp current, is/are supplied to an input (SDV lamp / SDVI lamp) of the control circuit, and - a measurement signal, that represents the voltage across the at least one lighting means, is supplied to the same input of the control circuit, - wherein the supplied measurement signals are used for lamp monitoring, - wherein the control circuit evaluates the supplied measurement signals for detecting faults and/or for operating the lighting means, in particular, for adjusting a parameter representing the output of the lighting means, - wherein a fault condition is a half-bridge current, which increases at the time of the switching off of the lower-potential switch of the half bridge or is in an invalid range, and - wherein the control frequency of the alternating clocking of the switch (Q1, Q2) of the half bridge is increased as a response to the detected fault condition, until no capacitive operation is detected any longer.
In vitro diagnostic method of Attention Deficit Hyperactivity Disorder (ADHD) CHARACTERIZED in that it comprises: • detecting from a peripheral blood sample the variation in normal serum levels in relation to the mean of a healthy reference population of the following lipids: Ceramide C16:0, Ceramide C24:0, Deoxy dihydro-ceramide C24:1 and Sphinganin 1-phosphate, docosahexaenoic acid and eicosapentaenoic acid; and • determining if there is a variation in the absolute values for Deoxy dihydro-ceramide C24:1 and Sphinganin 1-P, respect to the normal values obtained in the healthy population control group; • determining if there is a variation in the ratio Ceramide C24:0/Ceramide C16:0 (C24:0/C16:0) and DHA/EPA, respect to the normal values obtained in the healthy population control group; and • classifying the sample as positive for ADHD if there is: ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA, with respect to the normal values obtained in the healthy population control group. • detecting from a peripheral blood sample the variation in normal serum levels in relation to the mean of a healthy reference population of the following lipids: Ceramide C16:0, Ceramide C24:0, Deoxy dihydro-ceramide C24:1 and Sphinganin 1-phosphate, docosahexaenoic acid and eicosapentaenoic acid; and • determining if there is a variation in the absolute values for Deoxy dihydro-ceramide C24:1 and Sphinganin 1-P, respect to the normal values obtained in the healthy population control group; • determining if there is a variation in the ratio Ceramide C24:0/Ceramide C16:0 (C24:0/C16:0) and DHA/EPA, respect to the normal values obtained in the healthy population control group; and • classifying the sample as positive for ADHD if there is: ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA, ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA,
An exhaust gas purification apparatus for being disposed in an exhaust passage of an internal combustion engine and for purifying an exhaust gas discharged from the internal combustion engine, the exhaust gas purification apparatus comprising: a substrate having a wall-flow structure and including an entry-side cell in which only an exhaust gas inflow-side end part is open, an exit-side cell residing adjacent to an entry-side cell and in which only an exhaust gas outflow-side end part is open, and a porous partition that divides the entry-side cell from the exit-side cell; a first catalyst region formed in small pores having relatively small pore diameters among internal pores in the partition; and a second catalyst region formed in large pores having relatively large pore diameters among the internal pores in the partition, wherein the first catalyst region contains a support and any one or two species of precious metal selected from Pt, Pd, and Rh loaded on the support, and the second catalyst region contains a support and any one or two species of precious metal selected from Pt, Pd, and Rh loaded on the support and other than at least the precious metal present in the first catalyst region, wherein the average pore diameter of the small pores in which the first catalyst region is formed is not more than 10 μm, and the average pore diameter of the large pores in which the second catalyst region is formed is greater than 10 μm and not more than 100 μm, wherein said average pore diameter is measured by mercury intrusion.
An attachment device for securing an elongate member to a medical instrument, the attachment device comprising: a base comprising a top surface, a bottom surface, a first base aperture, and a second base aperture; and an adhesive at least partially disposed on the bottom surface of the base; wherein the attachment device is free from adhesive on the bottom surface of the base between the first base aperture and the second base aperture. a base comprising a top surface, a bottom surface, a first base aperture, and a second base aperture; and an adhesive at least partially disposed on the bottom surface of the base; wherein the attachment device is free from adhesive on the bottom surface of the base between the first base aperture and the second base aperture.
Method for producing a green body (52; 72) for a machining segment (11A, 11B; 21A, 21B; 31; 41; 51; 71) from a powdered or granular first matrix material (56; 76) and first hard material particles (57; 77), the machining segment being connected by an underside (61; 81) to a basic body (12A, 12B; 22A, 22B; 32; 42) of a machining tool (10A, 10B; 20A, 20B; 30; 40) and having a projection (Δ) of the first hard material particles (57; 77) on an upper side (62; 82) opposite from the underside (61; 81), characterized by the following steps: ▪ applying a powdered or granular supporting material (63; 83), the supporting material (63; 83) being different from the first matrix material (56; 76), ▪ arranging the first hard material particles (57; 77) in the supporting material (63; 83) according to a defined particle pattern, the first hard material particles (57; 77) being partially arranged in the supporting material (63; 83), and ▪ applying the first matrix material (56; 76) to the first hard material particles (57; 77) and the supporting material (63; 83). ▪ applying a powdered or granular supporting material (63; 83), the supporting material (63; 83) being different from the first matrix material (56; 76), ▪ arranging the first hard material particles (57; 77) in the supporting material (63; 83) according to a defined particle pattern, the first hard material particles (57; 77) being partially arranged in the supporting material (63; 83), and ▪ applying the first matrix material (56; 76) to the first hard material particles (57; 77) and the supporting material (63; 83).
A transverse brace for a vehicle floor, intended to extend between the two lateral sides of the vehicle, characterized in that said transverse brace comprises a body made of composite material, and deformable end pieces fixed at least to two ends of said body, said end pieces being arranged to connect said ends of the body to elements of the lateral structure of the vehicle, such as the side rails.