mhurhangee/ep-ind-claims huggingface dataset:
A line element comprising at least one hooped tube, said hooped tube comprising a central part constituted by a tubular core made of steel covered by least one banding layer, two receptacles fixed at the ends (21, 22) of said tubular core, a male tip and a female tip fixed in said receptacles, characterized in that - said receptacles are welded to the ends (21, 22) of said tubular core, - at least one receptacle is partially covered by at least one banding layer, - at least one supplementary banding layer extends on either side of a weld between said tubular core and said receptacle, - said male and female tips are made of steel with high elastic limit. - said receptacles are welded to the ends (21, 22) of said tubular core, - at least one receptacle is partially covered by at least one banding layer, - at least one supplementary banding layer extends on either side of a weld between said tubular core and said receptacle, - said male and female tips are made of steel with high elastic limit.
Nebulization device comprising an apparatus for checking and controlling breathing of a patient, said apparatus comprising: - a connection element for connecting said apparatus with a patient's respiratory tract; - a main body provided with an integrated display device; - one or more sensors adapted to continuously detect during the inhalation therapy a variation of at least one physical quantity associated with an air flow inhaled and/or exhaled by the patient, passing through said connection element and susceptible of emitting at least one signal related to said variation; - a control system integrated in the apparatus and configured to receive said signal to perform a correspondence checking of said at least one signal with at least one pre-set parameter stored in said control system, and emit an error signal in case of non-correspondence between said at least one signal and said at least one pre-set parameter, said pre-set parameter being obtained by said control system by an initial screening of the patient's breath through an analysis of a plurality of breaths, said pre-set parameter being compared during the course of each single delivery of said nebulization device to the signal detected by said one or more sensors. - a connection element for connecting said apparatus with a patient's respiratory tract; - a main body provided with an integrated display device; - one or more sensors adapted to continuously detect during the inhalation therapy a variation of at least one physical quantity associated with an air flow inhaled and/or exhaled by the patient, passing through said connection element and susceptible of emitting at least one signal related to said variation; - a control system integrated in the apparatus and configured to receive said signal to perform a correspondence checking of said at least one signal with at least one pre-set parameter stored in said control system, and emit an error signal in case of non-correspondence between said at least one signal and said at least one pre-set parameter, said pre-set parameter being obtained by said control system by an initial screening of the patient's breath through an analysis of a plurality of breaths, said pre-set parameter being compared during the course of each single delivery of said nebulization device to the signal detected by said one or more sensors.
A surgical robot (1, 1A, 1B) comprising: an operation part including a movable part moved by a force applied by an operation by a user; an action part (20, 70) performing an action according to the operation; a drive part (26a, 26b) supplying a driving force to the action part (20, 70); an operation controller (54a, 54b) controlling a move of the movable part; and a resistance force setter (38, 38B) setting a magnitude of a resistance force, the resistance force being a force inhibiting a movement of the movable part, the resistance force being a force in a direction opposite to a direction of movement of the movable part, wherein the resistance force setter (38, 38B) sets the magnitude of the resistance force based on a resistance parameter set in advance, and wherein the operation controller (54a, 54b) applies, to the movable part, the resistance force having the magnitude set by the resistance force setter (38, 38B), wherein the action part (20, 70) is actuated to cause a specified portion of the surgical robot (1, 1A, 1B) to move for a second distance corresponding to a first distance that is a distance of movement of the movable part, and characterized in that the resistance force setter (38, 38B) sets a magnitude of the resistance force based on the resistance parameter that is set based on a scaling coefficient that is a ratio of the first distance and the second distance. an operation part including a movable part moved by a force applied by an operation by a user; an action part (20, 70) performing an action according to the operation; a drive part (26a, 26b) supplying a driving force to the action part (20, 70); an operation controller (54a, 54b) controlling a move of the movable part; and a resistance force setter (38, 38B) setting a magnitude of a resistance force, the resistance force being a force inhibiting a movement of the movable part, the resistance force being a force in a direction opposite to a direction of movement of the movable part, wherein the resistance force setter (38, 38B) sets the magnitude of the resistance force based on a resistance parameter set in advance, and wherein the operation controller (54a, 54b) applies, to the movable part, the resistance force having the magnitude set by the resistance force setter (38, 38B), wherein the action part (20, 70) is actuated to cause a specified portion of the surgical robot (1, 1A, 1B) to move for a second distance corresponding to a first distance that is a distance of movement of the movable part, and characterized in that the resistance force setter (38, 38B) sets a magnitude of the resistance force based on the resistance parameter that is set based on a scaling coefficient that is a ratio of the first distance and the second distance.
A multimedia card, comprising a substrate, eight contacts (1 - 8), a transformer circuit disposed on the substrate, a control chip, and a memory chip, wherein the eight contacts (1 - 8) are disposed on the substrate, wherein the multimedia card comprises a first edge, a second edge, a third edge, and a fourth edge, wherein the first edge is parallel to the second edge, wherein the third edge is parallel to the fourth edge, wherein a distance between the first edge and the second edge is a first distance, a distance between the third edge and the fourth edge is a second distance, wherein the first distance is greater than the second distance, wherein a contact of the eight contacts (1 - 8) is a power supply contact configured to receive a first voltage, and wherein the power supply contact is coupled to the transformer circuit, and the transformer circuit is configured to convert the first voltage into a second voltage, characterized in that: four contacts of the eight contacts (1 - 8) are distributed along the first edge, and the other four contacts of the eight contacts (1 - 8) are distributed along the second edge, the control chip and the memory chip are covered with a packaging layer, and when the multimedia card works in a HS200 mode, the memory chip receives the first voltage from the power supply contact, and the control chip receives the second voltage from the transformer circuit. wherein the eight contacts (1 - 8) are disposed on the substrate, wherein the multimedia card comprises a first edge, a second edge, a third edge, and a fourth edge, wherein the first edge is parallel to the second edge, wherein the third edge is parallel to the fourth edge, wherein a distance between the first edge and the second edge is a first distance, a distance between the third edge and the fourth edge is a second distance, wherein the first distance is greater than the second distance, wherein a contact of the eight contacts (1 - 8) is a power supply contact configured to receive a first voltage, and wherein the power supply contact is coupled to the transformer circuit, and the transformer circuit is configured to convert the first voltage into a second voltage, characterized in that: four contacts of the eight contacts (1 - 8) are distributed along the first edge, and the other four contacts of the eight contacts (1 - 8) are distributed along the second edge, the control chip and the memory chip are covered with a packaging layer, and when the multimedia card works in a HS200 mode, the memory chip receives the first voltage from the power supply contact, and the control chip receives the second voltage from the transformer circuit. four contacts of the eight contacts (1 - 8) are distributed along the first edge, and the other four contacts of the eight contacts (1 - 8) are distributed along the second edge, the control chip and the memory chip are covered with a packaging layer, and when the multimedia card works in a HS200 mode, the memory chip receives the first voltage from the power supply contact, and the control chip receives the second voltage from the transformer circuit.
Emulsifier composition comprising: - a copolymer of formula I, in salified form or not: in which: - R is a linear or branched, saturated or unsaturated, aliphatic or aromatic monovalent hydrocarbon radical comprising at most 1000 carbon atoms, preferably between 5 and 25 carbon atoms, which may comprise one or more heteroatoms chosen from nitrogen and oxygen, preferably R is an alkyl chain containing at least one primary, secondary, tertiary or quaternary amine function; - X, Y and Z represent the molar fraction of each of the monomer units, X is less than 0.1, Y is comprised between 0.1 and 0.7 and Z is comprised between 0.3 and 0.9, the sum X + Y + Z being equal to 1, - and at least one emulsifier chosen from the group comprising cationic emulsifiers, non-ionic emulsifiers and amphoteric emulsifiers and mixtures thereof. - a copolymer of formula I, in salified form or not: in which: - R is a linear or branched, saturated or unsaturated, aliphatic or aromatic monovalent hydrocarbon radical comprising at most 1000 carbon atoms, preferably between 5 and 25 carbon atoms, which may comprise one or more heteroatoms chosen from nitrogen and oxygen, preferably R is an alkyl chain containing at least one primary, secondary, tertiary or quaternary amine function; - X, Y and Z represent the molar fraction of each of the monomer units, X is less than 0.1, Y is comprised between 0.1 and 0.7 and Z is comprised between 0.3 and 0.9, the sum X + Y + Z being equal to 1, - and at least one emulsifier chosen from the group comprising cationic emulsifiers, non-ionic emulsifiers and amphoteric emulsifiers and mixtures thereof. - R is a linear or branched, saturated or unsaturated, aliphatic or aromatic monovalent hydrocarbon radical comprising at most 1000 carbon atoms, preferably between 5 and 25 carbon atoms, which may comprise one or more heteroatoms chosen from nitrogen and oxygen, preferably R is an alkyl chain containing at least one primary, secondary, tertiary or quaternary amine function; - X, Y and Z represent the molar fraction of each of the monomer units, X is less than 0.1, Y is comprised between 0.1 and 0.7 and Z is comprised between 0.3 and 0.9, the sum X + Y + Z being equal to 1, - and at least one emulsifier chosen from the group comprising cationic emulsifiers, non-ionic emulsifiers and amphoteric emulsifiers and mixtures thereof.
An aerial vehicle, comprising: a fuselage; a plurality of propulsion mechanism arms coupled to and extending from the fuselage; a plurality of propulsion mechanisms, each propulsion mechanism coupled to a respective propulsion mechanism arm and positioned around the fuselage; a ring wing comprising a plurality of wing sections (107-1... 6) positioned around the fuselage and the plurality of propulsion mechanisms, a respective spanwise end of each wing section coupled to a respective outer end of a respective propulsion mechanism arm, wherein each wing section comprises a releasable or frangible connection to an adjacent wing section of the plurality of wing sections; and a first actuator coupled to a first wing section and configured to alter an orientation of the first wing section, wherein based on the releasable or frangible connection releasing or separating the first wing section from the adjacent wing section, the first actuator is configured to alter the orientation of the first wing section. a fuselage; a plurality of propulsion mechanism arms coupled to and extending from the fuselage; a plurality of propulsion mechanisms, each propulsion mechanism coupled to a respective propulsion mechanism arm and positioned around the fuselage; a ring wing comprising a plurality of wing sections (107-1... 6) positioned around the fuselage and the plurality of propulsion mechanisms, a respective spanwise end of each wing section coupled to a respective outer end of a respective propulsion mechanism arm, wherein each wing section comprises a releasable or frangible connection to an adjacent wing section of the plurality of wing sections; and a first actuator coupled to a first wing section and configured to alter an orientation of the first wing section, wherein based on the releasable or frangible connection releasing or separating the first wing section from the adjacent wing section, the first actuator is configured to alter the orientation of the first wing section.
A vane ring assembly, comprising: a lower vane ring; an upper vane ring; one or more guide vanes pivotably mounted at least partially between said lower and upper vane rings (20, 30); one or more fasteners (40, 42) for fastening said upper vane ring relative to said lower vane ring; at least one spacer positioned between said lower and upper vane rings (20, 30) for maintaining a distance between said lower and upper vane rings (20, 30), wherein said spacer is a stepped spacer with a spacer body section with a spacer outer diameter, and with first and second ends (52, 54), characterized in that said first and second ends (52, 54) have outer diameters smaller than said spacer body section outer diameter, and wherein at least said first and second ends (52, 54) of said spacer are seated in first and second counter bores (22, 32) formed in said lower and upper vane rings (20, 30). a lower vane ring; an upper vane ring; one or more guide vanes pivotably mounted at least partially between said lower and upper vane rings (20, 30); one or more fasteners (40, 42) for fastening said upper vane ring relative to said lower vane ring; at least one spacer positioned between said lower and upper vane rings (20, 30) for maintaining a distance between said lower and upper vane rings (20, 30), wherein said spacer is a stepped spacer with a spacer body section with a spacer outer diameter, and with first and second ends (52, 54), characterized in that said first and second ends (52, 54) have outer diameters smaller than said spacer body section outer diameter, and wherein at least said first and second ends (52, 54) of said spacer are seated in first and second counter bores (22, 32) formed in said lower and upper vane rings (20, 30).
Process for the preparation of 1-nitro-4-oxobutanylamides of general formula la and Ib or opposite enantiomers thereof, wherein R1 is H, allyl, alkyloxycarbonyl, arylalkyloxycarbonyl with a number of carbon atoms up to 24 or the same as in R2, R2 represents alkyl, cycloalkyl or phenylalkyl with up to 24 carbon atoms, and R3 represents alkyl, alkylphenyl, phenylalkyl or phenyl, substituted phenyl, alkoxyphenylalkyl with up to 24 carbon atoms, or wherein R3 is methyl when R1 is 4-methoxyphenylmethyl, characterized in that aldehydes of general formula II, wherein R2 is defined as above, reacts with 2-nitroethenylamides of general formula IIIa and/or IIIb, wherein R1 and R3 are defined as above, in the presence of organic catalysts and co-catalysts in organic solvent, water, in solution of inorganic salts in water or in the mixture of organic solvents and water or in the mixture of solutions of inorganic salts in water and organic solvents at the temperature between -20 and +50 °C.
A system, comprises: an array position sensing detector, the array position sensing detector, including an array of lateral effect position sensing detector elements (100, 1300) and a summing amplifier (710, 1120); characterized in that each lateral effect position sensing detector element (100, 1300) produces an output coupled with the summing amplifier (710, 1120) through a switch; where each lateral effect position sensing detector element (100, 1300) is coupled with a threshold detecting circuit, the threshold detecting circuit configured to determine whether a photocurrent generated in the lateral effect position sensing detector element (100, 1300) exceeds a threshold set-point value, where an output of the threshold detecting circuit is coupled with and controls a state of the switch for the lateral effect position sensing detector element (100, 1300). an array position sensing detector, the array position sensing detector, including an array of lateral effect position sensing detector elements (100, 1300) and a summing amplifier (710, 1120); characterized in that each lateral effect position sensing detector element (100, 1300) produces an output coupled with the summing amplifier (710, 1120) through a switch; where each lateral effect position sensing detector element (100, 1300) is coupled with a threshold detecting circuit, the threshold detecting circuit configured to determine whether a photocurrent generated in the lateral effect position sensing detector element (100, 1300) exceeds a threshold set-point value, where an output of the threshold detecting circuit is coupled with and controls a state of the switch for the lateral effect position sensing detector element (100, 1300).
A flow pack comprising a peelable film, said film comprising: - a coextruded multilayer structure, said coextruded structure comprising: • a rupturable polyester-based inner sealant layer; • an adhesive layer in contact with said rupturable layer, comprising a polymer selected from the group consisting of ionomers, maleic anhydride grafted polyolefin, EVA, EBA, EMA and EAA; • a gas-barrier layer in contact with said adhesive layer, comprising a gas-barrier polymer selected from the group consisting of polyester, EVOH and polyamide; - an outer sealant layer comprising a polymer selected from the group consisting of amorphous polyester, preferably APET, copolymer of PET, preferably PETG, and polyvinyl chloride, said outer sealant layer being either coextruded with the multilayer structure, or applied in a subsequent step; wherein the delamination of said adhesive layer and said rupturable layer, in use, is characterized by a first break strength and an average peel strength measured as described herein, said average peel strength being lower than 15N/15 mm, preferably lower than 13N/15mm as measured in a 180° peel geometry. - a coextruded multilayer structure, said coextruded structure comprising: • a rupturable polyester-based inner sealant layer; • an adhesive layer in contact with said rupturable layer, comprising a polymer selected from the group consisting of ionomers, maleic anhydride grafted polyolefin, EVA, EBA, EMA and EAA; • a gas-barrier layer in contact with said adhesive layer, comprising a gas-barrier polymer selected from the group consisting of polyester, EVOH and polyamide; • a rupturable polyester-based inner sealant layer; • an adhesive layer in contact with said rupturable layer, comprising a polymer selected from the group consisting of ionomers, maleic anhydride grafted polyolefin, EVA, EBA, EMA and EAA; • a gas-barrier layer in contact with said adhesive layer, comprising a gas-barrier polymer selected from the group consisting of polyester, EVOH and polyamide; - an outer sealant layer comprising a polymer selected from the group consisting of amorphous polyester, preferably APET, copolymer of PET, preferably PETG, and polyvinyl chloride, said outer sealant layer being either coextruded with the multilayer structure, or applied in a subsequent step;
A photonic integrated circuit, comprising: - an input interface adapted for receiving an optical input signal and splitting the optical input signal into a first mode signal and a second mode signal respectively corresponding to two distinct polarization modes of the optical input signal, - a rotator for rotating the polarization of at least one of the first mode signal and the second mode signal such as to provide the first mode signal and the second mode signal in a common polarization mode, - a combiner adapted for combining the first mode signal and the second mode signal into a combined signal, - a decohering means, and - a processing component for receiving and processing said combined signal characterized in that the decohering means comprises a first waveguide and a second waveguide one of which containing a delay line or a phase modulator, the decohering means being adapted for transforming at least one of the first mode signal and the second mode signal such that the first mode signal and the second mode signal are received by the combiner in a mutually incoherent state. - an input interface adapted for receiving an optical input signal and splitting the optical input signal into a first mode signal and a second mode signal respectively corresponding to two distinct polarization modes of the optical input signal, - a rotator for rotating the polarization of at least one of the first mode signal and the second mode signal such as to provide the first mode signal and the second mode signal in a common polarization mode, - a combiner adapted for combining the first mode signal and the second mode signal into a combined signal, - a decohering means, and - a processing component for receiving and processing said combined signal characterized in that the decohering means comprises a first waveguide and a second waveguide one of which containing a delay line or a phase modulator, the decohering means being adapted for transforming at least one of the first mode signal and the second mode signal such that the first mode signal and the second mode signal are received by the combiner in a mutually incoherent state.
A method of functionalizing a nanoparticle, comprising: associating a ligand interactive agent with the nanoparticle; crosslinking the ligand interactive agent with a crosslinking agent which bridges between functional groups of the ligand interactive agent; and binding a surface modifying ligand to the ligand interactive agent via the crosslinking agent, wherein the surface modifying ligand imparts compatibility to the nanoparticle with a particular solvent or media, wherein the crosslinking agent is a melamine compound; wherein the ligand interactive agent is a C 8 -C 20 fatty acid or an ester thereof, and wherein the nanoparticle comprises capping ligands and associating a ligand interactive agent with the nanoparticle comprises intercalating the ligand interactive agent with the capping ligands. associating a ligand interactive agent with the nanoparticle; crosslinking the ligand interactive agent with a crosslinking agent which bridges between functional groups of the ligand interactive agent; and binding a surface modifying ligand to the ligand interactive agent via the crosslinking agent, wherein the surface modifying ligand imparts compatibility to the nanoparticle with a particular solvent or media, wherein the crosslinking agent is a melamine compound; wherein the ligand interactive agent is a C 8 -C 20 fatty acid or an ester thereof, and wherein the nanoparticle comprises capping ligands and associating a ligand interactive agent with the nanoparticle comprises intercalating the ligand interactive agent with the capping ligands.