mhurhangee/ep-ind-claims huggingface dataset:
An electrode assembly for an electromagnetic flow meter, the electrode assembly comprising: a housing having a passage between first and second ends (124 1, 124 2); an electrode (125; 225; 325; 425; 1225; 1325) comprising a plug of porous material at least partially disposed within the passage proximate the first end; and characterised by an electrically-conductive polymer connector (127; 227; 1127; 1226; 1326) at least partially disposed within the passage and in direct contact with the electrode. a housing having a passage between first and second ends (124 1, 124 2); an electrode (125; 225; 325; 425; 1225; 1325) comprising a plug of porous material at least partially disposed within the passage proximate the first end; and characterised by an electrically-conductive polymer connector (127; 227; 1127; 1226; 1326) at least partially disposed within the passage and in direct contact with the electrode.
A heat pipe comprising: an inlet (25;100;200;300;400;500) through which a working fluid is injected, wherein the inlet (25;100;200;300;400;500) includes a non-sealed portion and a sealed portion (32;131;132;231;232) connected to the non-sealed portion, and the non-sealed portion and the sealed portion (32;131;132;231;232) each include two outermost metal layers (61,66) and a plurality of intermediate metal layers stacked between the outermost metal layers (61,66); and a porous body (50;120;220;320;420;520) arranged in the inlet (25;100;200;300;400;500). an inlet (25;100;200;300;400;500) through which a working fluid is injected, wherein the inlet (25;100;200;300;400;500) includes a non-sealed portion and a sealed portion (32;131;132;231;232) connected to the non-sealed portion, and the non-sealed portion and the sealed portion (32;131;132;231;232) each include two outermost metal layers (61,66) and a plurality of intermediate metal layers stacked between the outermost metal layers (61,66); and the inlet (25;100;200;300;400;500) includes a non-sealed portion and a sealed portion (32;131;132;231;232) connected to the non-sealed portion, and the non-sealed portion and the sealed portion (32;131;132;231;232) each include two outermost metal layers (61,66) and a plurality of intermediate metal layers stacked between the outermost metal layers (61,66); and a porous body (50;120;220;320;420;520) arranged in the inlet (25;100;200;300;400;500).
An antenna, including: a power splitter; a phase shifter; a first column of main radiating elements (111, 112, 113, 114, 115), each main radiating element (111, 112, 113, 114, 115) configured to operate in a first operating frequency band; and a first auxiliary radiating element that is rotated 180° relative to a first main radiating element in the first column, wherein the first auxiliary radiating element is adjacent the first main radiating element, and the first auxiliary radiating element is configured to radiate an electromagnetic wave that has a phase that differs from a phase of an electromagnetic wave radiated by the first main radiating element by between 160° and 180 0, wherein the first main radiating element and the first auxiliary radiating element are configured to be fed respective first and second components of a signal that are in phase with each other, wherein the first auxiliary radiating element is adjacent the first main radiating element in a direction perpendicular to an axis defined by the first column of main radiating elements (111, 112, 113, 114, 115), wherein the first main radiating element and the first auxiliary radiating element are respectively connected to a first output terminal and a second output terminal of a power splitter, and wherein an input terminal of the power splitter is connected to a first output terminal of the phase shifter. a power splitter; a phase shifter; a first column of main radiating elements (111, 112, 113, 114, 115), each main radiating element (111, 112, 113, 114, 115) configured to operate in a first operating frequency band; and a first auxiliary radiating element that is rotated 180° relative to a first main radiating element in the first column, wherein the first auxiliary radiating element is adjacent the first main radiating element, and the first auxiliary radiating element is configured to radiate an electromagnetic wave that has a phase that differs from a phase of an electromagnetic wave radiated by the first main radiating element by between 160° and 180 0, wherein the first main radiating element and the first auxiliary radiating element are configured to be fed respective first and second components of a signal that are in phase with each other, wherein the first auxiliary radiating element is adjacent the first main radiating element in a direction perpendicular to an axis defined by the first column of main radiating elements (111, 112, 113, 114, 115), wherein the first main radiating element and the first auxiliary radiating element are respectively connected to a first output terminal and a second output terminal of a power splitter, and wherein an input terminal of the power splitter is connected to a first output terminal of the phase shifter.
An information reproducing apparatus comprising: a decryptor for decrypting encrypted stream information representing video or audio that has been coded and also encrypted and for outputting a decrypted stream and an internal signal from which it can be determined whether or not the decryptor is performing decryption processing, wherein the internal signal of the decryptor comprises one of: a timing signal relating to the decryption process; data in an encryption key register of the decryptor; and a signal that indicates whether data in an encryption key register of the decryptor matches identity element data; a decryptor status monitor for receiving the internal signal of the decryptor and generating a decryption status signal in indicating whether or not the decryptor is performing decryption processing (Ed or Nd); a decoder for decoding the stream information code; wherein: the information reproducing apparatus is adapted to have the decoder perform decoding operations correctly only when the decryption status signal indicates that decryption processing is being or has been performed (E d) a decryptor for decrypting encrypted stream information representing video or audio that has been coded and also encrypted and for outputting a decrypted stream and an internal signal from which it can be determined whether or not the decryptor is performing decryption processing, wherein the internal signal of the decryptor comprises one of: a timing signal relating to the decryption process; data in an encryption key register of the decryptor; and a signal that indicates whether data in an encryption key register of the decryptor matches identity element data; a timing signal relating to the decryption process; data in an encryption key register of the decryptor; and a signal that indicates whether data in an encryption key register of the decryptor matches identity element data; a decryptor status monitor for receiving the internal signal of the decryptor and generating a decryption status signal in indicating whether or not the decryptor is performing decryption processing (Ed or Nd); a decoder for decoding the stream information code; wherein: the information reproducing apparatus is adapted to have the decoder perform decoding operations correctly only when the decryption status signal indicates that decryption processing is being or has been performed (E d) the information reproducing apparatus is adapted to have the decoder perform decoding operations correctly only when the decryption status signal indicates that decryption processing is being or has been performed (E d)
A transfer connector, comprising: a body part (210, 510) extending in one direction and provided therein with a hollow portion (230, 530); a base (220, 520) integrally formed with the body part (210, 510) and having a communication hole formed therethrough so as to communicate with the hollow portion (230, 530); an electric connection part (240, 540) electrically connectable to an external power source, penetrating through the hollow portion (230, 530) and the communication hole, and extending in the one direction in which the body part (210, 510) extends; and a guide part (250, 550) disposed to face the body part (210, 510) with the base interposed therebetween, wherein the guide part (250, 550) includes a penetrating portion (251, 551) formed therethrough to communicate with the communication hole, and to which the electric connection part (240, 540) is penetratingly coupled, and wherein a surface that surrounds the penetrating portion (251, 551) is in contact with an outer circumferential surface of the electric connection part (240, 540), characterized in that the guide part (250, 550) is formed as a single-piece plate wider than the communication hole and is located beneath the base (220, 520), and wherein one side of the guide part (250, 550) facing a lower side of the base (220, 520) is coupled to be in close contact with the lower side of the base (220, 520). a body part (210, 510) extending in one direction and provided therein with a hollow portion (230, 530); a base (220, 520) integrally formed with the body part (210, 510) and having a communication hole formed therethrough so as to communicate with the hollow portion (230, 530); an electric connection part (240, 540) electrically connectable to an external power source, penetrating through the hollow portion (230, 530) and the communication hole, and extending in the one direction in which the body part (210, 510) extends; and a guide part (250, 550) disposed to face the body part (210, 510) with the base interposed therebetween, wherein the guide part (250, 550) includes a penetrating portion (251, 551) formed therethrough to communicate with the communication hole, and to which the electric connection part (240, 540) is penetratingly coupled, and wherein a surface that surrounds the penetrating portion (251, 551) is in contact with an outer circumferential surface of the electric connection part (240, 540), characterized in that the guide part (250, 550) is formed as a single-piece plate wider than the communication hole and is located beneath the base (220, 520), and wherein one side of the guide part (250, 550) facing a lower side of the base (220, 520) is coupled to be in close contact with the lower side of the base (220, 520).
A dry powder composition for inhalation, comprising at least (a) an effective amount of an active ingredient being an antimicrobial aminoglycoside derivative or a salt thereof, (b) an effective amount of an active ingredient being a biofilm modifier which is a macrolide derivative or salt thereof, and (c) a carrier, wherein said carrier is a carbohydrate or a mixture of two or more carbohydrates, preferably selected from a group consisting of anhydrous lactose, lactose monohydrate, mannitol, xylitol, dextrose, saccharose, a cyclodextrin derivative or a mixture thereof, wherein the ratio (weight/weight) aminoglycoside / macrolide is comprised between 0.2 to 5, preferably between 0.3 and 3, more preferably between 0.8 and 2. (a) an effective amount of an active ingredient being an antimicrobial aminoglycoside derivative or a salt thereof, (b) an effective amount of an active ingredient being a biofilm modifier which is a macrolide derivative or salt thereof, and (c) a carrier, wherein said carrier is a carbohydrate or a mixture of two or more carbohydrates, preferably selected from a group consisting of anhydrous lactose, lactose monohydrate, mannitol, xylitol, dextrose, saccharose, a cyclodextrin derivative or a mixture thereof, wherein the ratio (weight/weight) aminoglycoside / macrolide is comprised between 0.2 to 5, preferably between 0.3 and 3, more preferably between 0.8 and 2.
Process for obtaining a concentrate or isolate of soluble milk proteins, which is stable with respect to heat treatments, including the following steps: a) producing soluble milk proteins in the form of a concentrate or an isolate obtained via a method including physical separation by filtration of the milk components, b) diluting to a solids content of 10% to 15%, c) adjusting the pH to between 3.4 and 3.7, d) maturing for between 30 minutes and 60 minutes at a temperature of between 50 and 60°C, e) diluting to an SC of 3%, f) physically separating the proteins into a fraction containing α-lactalbumin, immunoglobulins, lactoferrin, BSA and a fraction containing β-lactoglobulin, g) recovering the fraction and adjusting the pH to a value of between 7 and 8, h) recovering the fraction and adjusting the pH to a value of between 6 and 8, i) concentrating, at a temperature below 20°C, the fraction to a solids content of 8-15%, j) denaturing the β-lactoglobulin of the fraction, k) producing a fraction F2 including the denatured β-lactoglobulin, l) mixing the fraction obtained in step g) and the fraction obtained in step k), m) concentrating the mixture, at a temperature below 20°C, to a solids content of 25-30%, n) transforming into a powder and drying according to techniques taking place at a temperature below 60°C, o) producing a heat-stable concentrate or isolate of soluble milk proteins in powder form. a) producing soluble milk proteins in the form of a concentrate or an isolate obtained via a method including physical separation by filtration of the milk components, b) diluting to a solids content of 10% to 15%, c) adjusting the pH to between 3.4 and 3.7, d) maturing for between 30 minutes and 60 minutes at a temperature of between 50 and 60°C, e) diluting to an SC of 3%, f) physically separating the proteins into a fraction containing α-lactalbumin, immunoglobulins, lactoferrin, BSA and a fraction containing β-lactoglobulin, g) recovering the fraction and adjusting the pH to a value of between 7 and 8, h) recovering the fraction and adjusting the pH to a value of between 6 and 8, i) concentrating, at a temperature below 20°C, the fraction to a solids content of 8-15%, j) denaturing the β-lactoglobulin of the fraction, k) producing a fraction F2 including the denatured β-lactoglobulin, l) mixing the fraction obtained in step g) and the fraction obtained in step k), m) concentrating the mixture, at a temperature below 20°C, to a solids content of 25-30%, n) transforming into a powder and drying according to techniques taking place at a temperature below 60°C, o) producing a heat-stable concentrate or isolate of soluble milk proteins in powder form.
A fuel system for an aircraft, comprising: a fuel tank for storing fuel during operation of the aircraft; and a diffuser disposed inside the fuel tank and configured such that the diffuser forms part of a flow path configured to connect a fuel source to the inside of the fuel tank; wherein the diffuser comprises: a wall which at least partially defines an internal space of the diffuser; an opening in the wall, which provides access to the internal space; and a blocking component configured to block the opening, the blocking component is a test blocking component, and is configured to block the flow path so as to prevent fuel flowing into the fuel tank; and wherein the diffuser comprises an outlet through which fuel flows into the internal space of the diffuser during a process of delivering fuel into the fuel tank, and wherein the test blocking component comprises a seal member configured to block the outlet. a fuel tank for storing fuel during operation of the aircraft; and a diffuser disposed inside the fuel tank and configured such that the diffuser forms part of a flow path configured to connect a fuel source to the inside of the fuel tank; wherein the diffuser comprises: a wall which at least partially defines an internal space of the diffuser; an opening in the wall, which provides access to the internal space; and a blocking component configured to block the opening, a wall which at least partially defines an internal space of the diffuser; an opening in the wall, which provides access to the internal space; and a blocking component configured to block the opening, the blocking component is a test blocking component, and is configured to block the flow path so as to prevent fuel flowing into the fuel tank; and wherein the diffuser comprises an outlet through which fuel flows into the internal space of the diffuser during a process of delivering fuel into the fuel tank, and wherein the test blocking component comprises a seal member configured to block the outlet.
Pharmaceutical composition comprising at least one fatty phase, at least one aqueous phase and at least one compound of the avermectin family, characterized in that it is in the form of an oil-in-water emulsion and in that the fatty phase comprises - an active phase which contains only an oily solvent chosen from diisopropyl adipate, PPG 15 stearyl ether, octyl dodecanol, C 12 -C 15 alkyl benzoate and mixtures thereof and in which the compound of the avermectin family is solubilized, and - a fatty phase which is not a solvent for the active agent, which comprises at least one lipophilic compound chosen from silicone oils, mineral oils, stearyl alcohol, cetyl alcohol, waxes, butters and mixtures thereof and in which the compounds of the avermectin family have a solubility of less than or equal to 1% by weight relative to the total weight of said non-solvent fatty phase. - an active phase which contains only an oily solvent chosen from diisopropyl adipate, PPG 15 stearyl ether, octyl dodecanol, C 12 -C 15 alkyl benzoate and mixtures thereof and in which the compound of the avermectin family is solubilized, and - a fatty phase which is not a solvent for the active agent, which comprises at least one lipophilic compound chosen from silicone oils, mineral oils, stearyl alcohol, cetyl alcohol, waxes, butters and mixtures thereof and in which the compounds of the avermectin family have a solubility of less than or equal to 1% by weight relative to the total weight of said non-solvent fatty phase.
Vacuum cleaner suction tube, having at least one inner tube and at least one outer tube, wherein the vacuum cleaner suction tube is adjustable with respect to its length by displacing the outer tube relative to the inner tube, wherein the inner tube has at least one locking region, wherein the locking region comprises at least one first snap-in recess and at least one second snap-in recess, and wherein the snap-in recesses (6, 7) are formed by an indentation with respect to the surface of the inner tube, characterized in that at least one first type of latching tooth is formed between the first snap-in recess and the second snap-in recess, and that the tooth tip of the first type of latching tooth is arranged below the surface of the inner tube.
An absorbent article for absorbing liquid discharge of a wearer when worn in the crotch region, the absorbent article comprising an absorbent core for doing the absorbing of the liquid discharge, a conductive layer in electrical contact with the absorbent core and at least one set of first and second electrical contacts secured in electrical and physical contact with the conductive layer such that when an electric potential is applied between the first and second electrical contacts, an electric current travels between them and through the conductive layer in such a way so as to follow a first relatively high impedance path along the conductive layer when the absorbent core is in a dry state and to follow a relatively low impedance path when the absorbent core is in a wetted state from the liquid discharge that a least partially diverts through the absorbent core, wherein the change in impedance from the dry core state to the wetted core state is measurable.
A method for the prediction of preeclampsia in a subject comprising testing and evaluating in a sample that has been obtained from said subject a test panel, wherein the sample is whole blood, plasma or serum, the test panel comprising: - measurement of the level of insulin-like growth factor-binding protein complex acid labile subunit (IGFALS), - measurement of blood pressure, - measurement of the level of Kunitz-type protease inhibitor 1 (SPINT1), and - measurement of the level of either i) disintegrin and metalloproteinase domain containing protein 12 (ADAM12) or ii) s-Endoglin (ENG or s-ENG), wherein the measurements of the biomarkers and parameter of the test panel is used to establish a biomarker-and-parameter profile, which is compared with a corresponding multiparameter reference value for prediction of PE. - measurement of the level of insulin-like growth factor-binding protein complex acid labile subunit (IGFALS), - measurement of blood pressure, - measurement of the level of Kunitz-type protease inhibitor 1 (SPINT1), and - measurement of the level of either i) disintegrin and metalloproteinase domain containing protein 12 (ADAM12) or ii) s-Endoglin (ENG or s-ENG),
Treatment method for densifying soils, comprising: - drilling, in a soil zone (10, 10A, 10B), a set of holes (11, 12, 13) spaced apart from one another, - injecting into the soil, in said holes, an expansive chemical composition, said expansion leading to a densification of the soil in the vicinity of said chemical composition, - said method being characterized in that it first comprises a step of checking of the soil zone to be drilled, said checking step being such that: - an electromagnetic induction apparatus performs a measurement of resistivity at a number of points of the soil zone, each point being identified by spatial coordinates (x, y, z), - via a data base, each of said resistivities is correlated with a material so as to generate a spatial representation of the soil zone. - drilling, in a soil zone (10, 10A, 10B), a set of holes (11, 12, 13) spaced apart from one another, - injecting into the soil, in said holes, an expansive chemical composition, said expansion leading to a densification of the soil in the vicinity of said chemical composition, - said method being characterized in that it first comprises a step of checking of the soil zone to be drilled, said checking step being such that: - an electromagnetic induction apparatus performs a measurement of resistivity at a number of points of the soil zone, each point being identified by spatial coordinates (x, y, z), - via a data base, each of said resistivities is correlated with a material so as to generate a spatial representation of the soil zone. - an electromagnetic induction apparatus performs a measurement of resistivity at a number of points of the soil zone, each point being identified by spatial coordinates (x, y, z), - via a data base, each of said resistivities is correlated with a material so as to generate a spatial representation of the soil zone.