mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition for oral administration to a mammal comprising: a first nutritional ingredient consisting of 50 to 600 milligrams ferrous bisglycinate chelate; and a first buffering agent selected from the group consisting of ferrous asparto glycinate, dicalcium malate, glycine and combinations thereof. a first nutritional ingredient consisting of 50 to 600 milligrams ferrous bisglycinate chelate; and a first buffering agent selected from the group consisting of ferrous asparto glycinate, dicalcium malate, glycine and combinations thereof.
A method for petroleum hydrocarbon degradation in water using fungi, characterized in that petroleum hydrocarbons to be degraded are brought into contact with an inoculum formed from at least the following components: ▪ fungi strains isolated from sand and water of Baltic Sea coast samples, wherein the fungi strains are selected from Clonostachys rosea, Alternaria rosae or Emericellopsis maritima ▪ an environmentally friendly support material that acts as a solid substrate for the fungi and is a natural sorbent of petroleum hydrocarbons, wherein the support material on which at least one fungi strain is immobilized, is selected from: wheat straw, oat straw, rice straw, corn straw, barley straw, cereal straw, wheat bran or sawdust, and wherein a fungi strain Emericellopsis sp. is applied additionally for microflora restoration. ▪ fungi strains isolated from sand and water of Baltic Sea coast samples, wherein the fungi strains are selected from Clonostachys rosea, Alternaria rosae or Emericellopsis maritima ▪ an environmentally friendly support material that acts as a solid substrate for the fungi and is a natural sorbent of petroleum hydrocarbons, wherein the support material on which at least one fungi strain is immobilized, is selected from: wheat straw, oat straw, rice straw, corn straw, barley straw, cereal straw, wheat bran or sawdust,
A method of folding a balloon, the method comprising: a. inflating a balloon; b. coating the balloon with one or more layers of therapeutic agents and/or excipients; c. pleating the coated balloon at a temperature from the range of 25°-60°C and at a pressure from the range of 25-35 psi; d. folding the pleated balloon in a predefined direction at a pressure 80-100 psi and a dwell time of 70-110 seconds; e. mounting a sheath on the folded balloon to hold pleats of the folded balloon; and f. heat setting the sheath and the folded balloon at a temperature of 30-60°C which results in the balloon having a reduced profile ranging 60% to 70% of initial balloon diameter. a. inflating a balloon; b. coating the balloon with one or more layers of therapeutic agents and/or excipients; c. pleating the coated balloon at a temperature from the range of 25°-60°C and at a pressure from the range of 25-35 psi; d. folding the pleated balloon in a predefined direction at a pressure 80-100 psi and a dwell time of 70-110 seconds; e. mounting a sheath on the folded balloon to hold pleats of the folded balloon; and f. heat setting the sheath and the folded balloon at a temperature of 30-60°C which results in the balloon having a reduced profile ranging 60% to 70% of initial balloon diameter.
A continuous method for decontamination of a liquid effluent including one or more radioactive chemical elements to be eliminated, including the following steps: - a step of bringing into contact in a stirred fluidised bed, in a first zone of a reactor, of the said liquid effluent with solid particles able, by coprecipitation and/or adsorption and/or ion exchange, to capture and retain the said radioactive chemical element or elements, as a result of which a suspension of solid particles is obtained containing the said radioactive chemical element or elements, this step of bringing into contact in a fluidised bed consisting in putting into suspension solid particles consisting in said solid particles able, by coprecipitation and/or adsorption and/or ion exchange, to capture and retain the said radioactive(s) element(s), in a fluid upflow consisting of the liquid effluent; - a step of settling of the said suspension, in a second zone of the same reactor, where this second zone is separate from the first abovementioned zone, as a result of which a solid phase is obtained including the solid particles containing the said radioactive chemical element or elements to be eliminated, and a liquid phase with a reduced or zero content of the said radioactive chemical element or elements to be eliminated; and - a step of separation of the said solid phase and of the said liquid phase; said reactor being a vertical reactor, wherein the first zone is a first column into which the liquid effluent together with the particles or the reagents required for the formation of the said particles are injected and the second zone is a second column positioned above the said first column. - a step of bringing into contact in a stirred fluidised bed, in a first zone of a reactor, of the said liquid effluent with solid particles able, by coprecipitation and/or adsorption and/or ion exchange, to capture and retain the said radioactive chemical element or elements, as a result of which a suspension of solid particles is obtained containing the said radioactive chemical element or elements, this step of bringing into contact in a fluidised bed consisting in putting into suspension solid particles consisting in said solid particles able, by coprecipitation and/or adsorption and/or ion exchange, to capture and retain the said radioactive(s) element(s), in a fluid upflow consisting of the liquid effluent; - a step of settling of the said suspension, in a second zone of the same reactor, where this second zone is separate from the first abovementioned zone, as a result of which a solid phase is obtained including the solid particles containing the said radioactive chemical element or elements to be eliminated, and a liquid phase with a reduced or zero content of the said radioactive chemical element or elements to be eliminated; and - a step of separation of the said solid phase and of the said liquid phase;
A turbomachine, comprising a substantially cylindrical rotor (13', 13") with a rotor body (2', 3) and a rotational axis, wherein the rotor is designed to be permeated in a direction perpendicularly to the rotational axis, and also comprising several rotor blades which are arranged in the rotor body (2', 3) parallel to the rotational axis and an adjusting device for cyclically adjusting the rotor blades, which consist of two sections (1', 1") which can be pivoted about a pivot axis (1a, 1b) which is parallel to the rotational axis, characterised in that the adjusting device has a first operating mode in which the rotor blades are cyclically pivoted in their entirety, and a second operating mode in which the respective sections (1', 1") of the individual rotor blades are pivoted cyclically against each other.
A connecting method for connecting a connection terminal (21, 21A, 31, 41, 51, 61, 71, 81, 101) having conductivity to an end of a flexible substrate, the flexible substrate having a conductive portion exposed on at least one of surfaces of the flexible substrate, the method comprising: arranging the connection terminal such that a rear surface of a base portion in a flat plate shape of the connection terminal is contacted with a front surface of the flexible substrate; with a rising portion of the connection terminal extending from the rear surface side of the base portion toward the base portion and a tip end bending portion of the connection terminal extending from a tip end of the rising portion in a direction inclined with respect to the rising portion, displacing the rising portion toward the base portion so that the tip end bending portion protrudes from a front surface of the base portion; characterized in that it further comprises the step of sandwiching a part of the flexible substrate between a pressing portion formed at the rising portion by a face facing a +Y direction opposite to a - Y direction in which the tip end bending portion is inclined with respect to the rising portion and a portion to be pressed formed at the base portion by a +Y directional edge of an opening in the base portion such that the flexible substrate is held between the pressing portion and the portion to be pressed to be elastically compressed in a thickness direction, whereby the conductive portion of the flexible substrate is electrically connected to at least one of the pressing portion and the portion to be pressed. arranging the connection terminal such that a rear surface of a base portion in a flat plate shape of the connection terminal is contacted with a front surface of the flexible substrate; with a rising portion of the connection terminal extending from the rear surface side of the base portion toward the base portion and a tip end bending portion of the connection terminal extending from a tip end of the rising portion in a direction inclined with respect to the rising portion, displacing the rising portion toward the base portion so that the tip end bending portion protrudes from a front surface of the base portion; characterized in that it further comprises the step of sandwiching a part of the flexible substrate between a pressing portion formed at the rising portion by a face facing a +Y direction opposite to a - Y direction in which the tip end bending portion is inclined with respect to the rising portion and a portion to be pressed formed at the base portion by a +Y directional edge of an opening in the base portion such that the flexible substrate is held between the pressing portion and the portion to be pressed to be elastically compressed in a thickness direction, whereby the conductive portion of the flexible substrate is electrically connected to at least one of the pressing portion and the portion to be pressed.
A method for performing a quantization of artificial neural networks, ANNs, the method comprising: receiving, by one or more processors, a description of an ANN and input data associated with the ANN, the description of the ANN being represented according to a first data type; determining, by the one or more processors, a first value interval of the first data type to be mapped to a second value interval of a second data type, wherein the first data type is a floating-point data type and the second data type is a fixed-point or integer data type; performing, by the one or more processors and based on the input data and the description of the ANN, the computations of one or more neurons of the ANN, wherein the computations are performed using at least one value of the second data type within the second value interval, the at least one value being a result of mapping of at least one value of the first value interval to a value of the second value interval; determining, by the one or more processors, a measure of saturations in the one or more neurons of the ANN; and adjusting, by the one or more processors and based on the measure of saturations, at least one of the first value interval and the second value interval, wherein the at least one of the first value interval and the second value interval is adjusted to decrease the measure of saturations in the one or more neurons or to bring the measure of saturations in the one or more neurons between a first predetermined level and a second predetermined level. receiving, by one or more processors, a description of an ANN and input data associated with the ANN, the description of the ANN being represented according to a first data type; determining, by the one or more processors, a first value interval of the first data type to be mapped to a second value interval of a second data type, wherein the first data type is a floating-point data type and the second data type is a fixed-point or integer data type; performing, by the one or more processors and based on the input data and the description of the ANN, the computations of one or more neurons of the ANN, wherein the computations are performed using at least one value of the second data type within the second value interval, the at least one value being a result of mapping of at least one value of the first value interval to a value of the second value interval; determining, by the one or more processors, a measure of saturations in the one or more neurons of the ANN; and adjusting, by the one or more processors and based on the measure of saturations, at least one of the first value interval and the second value interval, wherein the at least one of the first value interval and the second value interval is adjusted to decrease the measure of saturations in the one or more neurons or to bring the measure of saturations in the one or more neurons between a first predetermined level and a second predetermined level.
Multiple filling element for filling containers with a liquid charge, wherein the multiple filling element, is configured for mounting on a circulating rotor of a filling machine, and forms at least two individual filling elements (5.1) as structural units, each of which has at least one liquid channel having a charge dispensing opening with an individually controllable liquid valve, and wherein other operational elements of the individual filling elements (5.1), such as, for example, controlled fluid or liquid and/or gas and/or vapour paths (24, 24a) and control valves (26, 27; 30, 31) located there are jointly provided for all individual filling elements (5.1) of the multiple filling element, wherein the multiple filling element is designed for installation on the underside of a ring bowl (3.1) furnished on the rotor for providing the liquid charge, and wherein the charge dispensing openings, the liquid channels, and valve seats of the liquid valves are provided in or at a filling element lower part (9, 9a), which is configured for installation on the underside of the ring bowl (3.1), characterised in that the liquid valve of each individual filling element (5.1) consists of a valve body, provided at a valve tappet and interacting with the valve seat, and that the valve tappet is guided in or at an additional housing, which is provided separately for each individual filling element (5.1) on the filling element lower part (9, 9a), and projects over the side of the filling element lower part (9, 9a) which faces away from the charge dispensing opening.
A pumpable resin system for installation of mine roof bolts comprising: a resin reservoir configured to receive resin; a catalyst reservoir configured to receive catalyst; a resin pump arrangement in fluid communication with the resin reservoir; a catalyst pump arrangement in fluid communication with the catalyst reservoir; a delivery line in fluid communication with at least one of the resin pump arrangement and the catalyst pump arrangement; and a bolter arm configured to drill boreholes and install mine roof bolts, wherein the delivery line is configured to deliver resin and catalyst from the resin reservoir and the catalyst reservoir to a borehole via the bolter arm; wherein the resin reservoir comprises a resin feed cylinder configured to receive a resin cartridge and the catalyst reservoir comprises a catalyst feed cylinder configured to receive a catalyst cartridge, the resin feed cylinder and the catalyst feed cylinder each comprise a cap, the cap of the resin feed cylinder defining a gap between the cap of the resin feed cylinder and the resin feed cylinder, and the cap of the catalyst feed cylinder defining a gap between the cap of the catalyst feed cylinder and the catalyst feed cylinder, and wherein the gaps are configured to allow air to escape the respective resin feed cylinder and the catalyst feed cylinder during compression of resin and catalyst cartridges (160, 162) within the respective resin feed cylinder and the catalyst feed cylinder. a resin reservoir configured to receive resin; a catalyst reservoir configured to receive catalyst; a resin pump arrangement in fluid communication with the resin reservoir; a catalyst pump arrangement in fluid communication with the catalyst reservoir; a delivery line in fluid communication with at least one of the resin pump arrangement and the catalyst pump arrangement; and a bolter arm configured to drill boreholes and install mine roof bolts, wherein the delivery line is configured to deliver resin and catalyst from the resin reservoir and the catalyst reservoir to a borehole via the bolter arm; wherein the resin reservoir comprises a resin feed cylinder configured to receive a resin cartridge and the catalyst reservoir comprises a catalyst feed cylinder configured to receive a catalyst cartridge, the resin feed cylinder and the catalyst feed cylinder each comprise a cap, the cap of the resin feed cylinder defining a gap between the cap of the resin feed cylinder and the resin feed cylinder, and the cap of the catalyst feed cylinder defining a gap between the cap of the catalyst feed cylinder and the catalyst feed cylinder, and wherein the gaps are configured to allow air to escape the respective resin feed cylinder and the catalyst feed cylinder during compression of resin and catalyst cartridges (160, 162) within the respective resin feed cylinder and the catalyst feed cylinder.
A lateral insulated gate bipolar transistor, comprising: a substrate; an anode terminal located on the substrate, comprising: an N-type buffer region located on the substrate; a P well located in the N-type buffer region; and an N-region located in the P well; a cathode terminal located on the substrate; a drift region between the anode terminal and cathode terminal; and a gate between the anode terminal and cathode terminal, characterized in that the anode terminal further comprises: two P+ shallow junctions located on a surface of the P well; and an N+ shallow junction located between the two P+ shallow junctions, wherein the N-region is located between the N-type buffer region and the N+ shallow junction for forming a path for quickly extracting minority carriers, wherein one of the two P+ shallow junctions that is positioned closer to the cathode terminal and the N+ shallow junction are disposed at a surface of the N-region, and the N-region is not disposed between the N-type buffer region and the other of the two P+ shallow junctions. a substrate; an anode terminal located on the substrate, comprising: an N-type buffer region located on the substrate; a P well located in the N-type buffer region; and an N-region located in the P well; an N-type buffer region located on the substrate; a P well located in the N-type buffer region; and an N-region located in the P well; a cathode terminal located on the substrate; a drift region between the anode terminal and cathode terminal; and a gate between the anode terminal and cathode terminal, characterized in that the anode terminal further comprises: two P+ shallow junctions located on a surface of the P well; and an N+ shallow junction located between the two P+ shallow junctions, two P+ shallow junctions located on a surface of the P well; and an N+ shallow junction located between the two P+ shallow junctions, wherein the N-region is located between the N-type buffer region and the N+ shallow junction for forming a path for quickly extracting minority carriers, wherein one of the two P+ shallow junctions that is positioned closer to the cathode terminal and the N+ shallow junction are disposed at a surface of the N-region, and the N-region is not disposed between the N-type buffer region and the other of the two P+ shallow junctions.
Method for regulating a supply of pressure medium for a hydraulic actuator of a cyclically operating machine, in which the actuator is supplied with a quantity of pressure medium by an adjustment pump, and the adjustment pump is driven by a rotational-speed-controlled electric motor, and wherein the pressure (p) or the quantity of pressure medium is regulated by a pump regulator by actuating the setting of the volume of the adjustment pump, wherein the method has the following steps: - producing and/or providing a rotational speed profile for setting the rotational speed of the electric motor during a cycle of the machine, - actuating the rotational speed (n) of the electric motor and the setting of the volume of the adjustment pump, wherein within a cycle of the machine the electric motor is actuated according to the rotational speed profile, - determining a pressure/volume flow profile for the quantity of pressure medium, characterized in that - a step of determining a rotational speed difference (nl1; nl2) is provided, wherein the rotational speed difference (nl1; nl2) arises from the difference between the rotational speed (n) of the electric motor and a setpoint value for the rotational speed (ns), wherein the rotational speed difference (nl1; nl2) is determined on the basis of the determined pressure/volume flow profile, - and the step of actuating the rotational speed (n) of the electric motor and/or setting the volume of the adjustment pump is carried out as a function of the rotational speed difference (nl1; nl2). - producing and/or providing a rotational speed profile for setting the rotational speed of the electric motor during a cycle of the machine, - actuating the rotational speed (n) of the electric motor and the setting of the volume of the adjustment pump, wherein within a cycle of the machine the electric motor is actuated according to the rotational speed profile, - determining a pressure/volume flow profile for the quantity of pressure medium, - a step of determining a rotational speed difference (nl1; nl2) is provided, wherein the rotational speed difference (nl1; nl2) arises from the difference between the rotational speed (n) of the electric motor and a setpoint value for the rotational speed (ns), wherein the rotational speed difference (nl1; nl2) is determined on the basis of the determined pressure/volume flow profile, - and the step of actuating the rotational speed (n) of the electric motor and/or setting the volume of the adjustment pump is carried out as a function of the rotational speed difference (nl1; nl2).
A method of preparing silk spheres, comprising: (a) mixing an aqueous silk fibroin solution with an aqueous polyvinyl alcohol solution; (b) drying the solution of step (a) to form a film; (c) dissolving the film in water; and (d) removing at least a portion of the PVA, thereby forming silk spheres with the size of the spheres ranging from nanometers to micrometers. (a) mixing an aqueous silk fibroin solution with an aqueous polyvinyl alcohol solution; (b) drying the solution of step (a) to form a film; (c) dissolving the film in water; and (d) removing at least a portion of the PVA, thereby forming silk spheres with the size of the spheres ranging from nanometers to micrometers.