mhurhangee/patent-ind-claim-en huggingface dataset:
A first active agent and a second active agent for use in treating and/or protecting against acute liver failure in an individual, comprising (a) a formulation of the first active agent, wherein the first active agent replenishes, or decreases a loss of, functional glutathione in the individual and comprises N-acetylcysteine (NAC), cysteine, homocysteine, N-acetyl-cysteine-amide, or a combination thereof, and (b) a separate formulation of the second active agent, wherein the second active agent comprises a manganese complex selected from the group consisting of (i) a calcium manganese mixed metal complex of N,N'-bis-(pyridoxal-5-phosphate)-ethylenediamine-N,N'-diacetic acid (DPDP) having a molar ratio of calcium to manganese in a range of from 1 to 10, or a pharmaceutically acceptable salt thereof, (ii) a mixture of manganese DPDP (MnDPDP), or a pharmaceutically acceptable salt thereof, and a non-manganese-containing DPDP compound, or (iii) a mixture of manganese pyridoxyl ethylenediamine (MnPLED), or a pharmaceutically acceptable salt thereof, and a non-manganese-containing pyridoxyl ethylenediamine (PLED) compound, wherein the first active agent and the second active agent are in separate formulations. (a) a formulation of the first active agent, wherein the first active agent replenishes, or decreases a loss of, functional glutathione in the individual and comprises N-acetylcysteine (NAC), cysteine, homocysteine, N-acetyl-cysteine-amide, or a combination thereof, and (b) a separate formulation of the second active agent, wherein the second active agent comprises a manganese complex selected from the group consisting of (i) a calcium manganese mixed metal complex of N,N'-bis-(pyridoxal-5-phosphate)-ethylenediamine-N,N'-diacetic acid (DPDP) having a molar ratio of calcium to manganese in a range of from 1 to 10, or a pharmaceutically acceptable salt thereof, (ii) a mixture of manganese DPDP (MnDPDP), or a pharmaceutically acceptable salt thereof, and a non-manganese-containing DPDP compound, or (iii) a mixture of manganese pyridoxyl ethylenediamine (MnPLED), or a pharmaceutically acceptable salt thereof, and a non-manganese-containing pyridoxyl ethylenediamine (PLED) compound, wherein the first active agent and the second active agent are in separate formulations.
Moulded body made from an outer metallic shell element which has a nonlinearly tapering cross-section from the largest cross-section towards the two ends and at least partially encloses a cavity for the purpose of forming a core element , characterised in that the core element has a filling element , the filling element contains or consists of a compact mineral building material, the core element has a reinforcement , and the reinforcement is a cylindrical rod or hollow cylinder, and wherein the core element statically connects the two ends of the moulded body to each other in a continuous manner. the core element has a filling element , the filling element contains or consists of a compact mineral building material, the core element has a reinforcement , and the reinforcement is a cylindrical rod or hollow cylinder, and wherein the core element statically connects the two ends of the moulded body to each other in a continuous manner.
Ultra high pressure (UHP) pumping unit, of the order of 4000 bars, pneumatically actuated to form a jet of liquid intended for cutting materials, comprising a UHP pump with a chamber supplied with liquid whose outlet is connected hydraulically to a nozzle to form the jet, a UHP plunger moving in said chamber in a linear movement back and forth by means of a pneumatic actuator with rolling membrane comprising a working chamber, the pneumatic actuator comprising a rigid cylindrical envelope , a base fixed on the lower part of a frame, a rolling membrane housed in said envelope and fixed to the base, a piston in the form of a plate fixed on said membrane and moving back and forth in said envelope , an air inlet-outlet for supplying pressurized air to the working chamber delimited by the basemembrane-pneumatic piston assembly and to evacuate the air under the action of a return force from the pneumatic piston, the pumping unit comprising a linear guide whose movable part comprises a rod whose one end is fixed to the pneumatic piston and the other end is screwed to the UHP plunger of the UHP pump fixed to the upper part of the frame, the linear guide comprising several polymer rings including a polymer ring of adjustable diameter, at the end of the plunger at the level of the junction with the rod and moving back and forth in a cylindrical body enclosing an air-filled chamber , this air can escape from the chamber through gaps or grooves on the side surfaces of the guide rings.
An amplifier unit for operating a piezoelectric sound transducer and/or a dynamic sound transducer , which comprises at least one audio amplifier , wherein the amplifier unit includes a detection unit , with the aid of which it can be detected, in particular in an automated manner, whether a sound transducer coupled to the amplifier unit is a piezoelectric sound transducer or a dynamic sound transducer , characterized in that the amplifier unit is configured in such a way that, after a sound transducer has been connected, the amplifier unit sends, in particular in an automated manner, a test signal to the at least one connected sound transducer and that the detection unit is configured in such a way that it receives and analyzes a response signal of the sound transducer resulting from the test signal.
An actuator for a circuit interrupter, comprising: a stationary magnetic boss (35; 36); a movable magnetic armature (20, 25; 21); a solenoid and a drive rod aligned on an axis of the circuit interrupter, the drive rod having two stable positions, circuit interrupter closed and circuit interrupter open, characterised in that the drive rod has a surface , located on the drive rod between the movable magnetic armature (20, 25; 21) and the stationary magnetic boss (35; 36); wherein, in the circuit interrupter closed position, the armature (20, 25; 21) and the surface are separated by a pre-travel distance (Y2), wherein the armature (20, 25; 21) is configured such that, when the solenoid is activated, a magnetic force moves the armature (20, 25; 21) through the pre-travel distance (Y2) towards the stationary magnetic boss (35; 36) so that the armature (20, 25; 21) contacts the surface , and wherein the armature (20. 25; 21) is further configured such that, when the armature (20, 25; 21) contacts the surface , the armature (20, 25; 21) transfers a momentum to the drive rod that causes the drive rod to move from the circuit interrupter closed position to the circuit interrupter open position. a stationary magnetic boss (35; 36); a movable magnetic armature (20, 25; 21); a solenoid and a drive rod aligned on an axis of the circuit interrupter, the drive rod having two stable positions, circuit interrupter closed and circuit interrupter open, characterised in that the drive rod has a surface , located on the drive rod between the movable magnetic armature (20, 25; 21) and the stationary magnetic boss (35; 36); wherein, in the circuit interrupter closed position, the armature (20, 25; 21) and the surface are separated by a pre-travel distance (Y2), wherein the armature (20, 25; 21) is configured such that, when the solenoid is activated, a magnetic force moves the armature (20, 25; 21) through the pre-travel distance (Y2) towards the stationary magnetic boss (35; 36) so that the armature (20, 25; 21) contacts the surface , and wherein the armature (20. 25; 21) is further configured such that, when the armature (20, 25; 21) contacts the surface , the armature (20, 25; 21) transfers a momentum to the drive rod that causes the drive rod to move from the circuit interrupter closed position to the circuit interrupter open position.
Method for estimating an analyte concentration in an urban or peri-urban environment containing lanes configured to be followed by vehicular traffic, the method comprising the following steps: a) generating a spatial mesh of the environment, so as to obtain mesh points; b) taking into account, at each mesh point, at an estimation time: - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; c) using the data taken into account in step b), at the estimation time, as input data for a first supervised artificial-intelligence algorithm, so as to estimate, at each mesh point, a concentration of at least a first analyte, at the estimation time; d) using the concentration of the first analyte, resulting from step c), at at least one mesh point at the estimation time, as input datum for a second supervised artificial-intelligence algorithm that is different from the first supervised artificial-intelligence algorithm, so as to estimate, at the mesh point, a concentration of at least a second analyte that is different from the first analyte, at the estimation time; steps a) to d) being implemented by a processing unit, comprising a microprocessor. a) generating a spatial mesh of the environment, so as to obtain mesh points; b) taking into account, at each mesh point, at an estimation time: - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; - at least one datum that remains constant over time, relating to each lane; - estimated or measured dynamic data that vary as a function of the estimation time, these data including meteorological data, traffic data, and time-dependent data relating to the estimation time; c) using the data taken into account in step b), at the estimation time, as input data for a first supervised artificial-intelligence algorithm, so as to estimate, at each mesh point, a concentration of at least a first analyte, at the estimation time; d) using the concentration of the first analyte, resulting from step c), at at least one mesh point at the estimation time, as input datum for a second supervised artificial-intelligence algorithm that is different from the first supervised artificial-intelligence algorithm, so as to estimate, at the mesh point, a concentration of at least a second analyte that is different from the first analyte, at the estimation time;
A composition for use as component of a multicomponent resin-modified glass ionomer cement, the composition comprising - one or more radically polymerizable organic monomers (M) and also, as constituent of a polymerization initiator system for it - one or more compounds (A) selected from the group consisting of the isomers of ascorbic acid, the salts of the isomers of ascorbic acid, the esters of the isomers of ascorbic acid and the ethers of the isomers of ascorbic acid and - one or more compounds (S) selected from the group consisting of sulfinic acids, salts of sulfinic acids and salts of organoboron compounds additionally comprising a basic glass composition (G) as crosslinking agent for polymers containing carboxylic acid groups (P) selected from the group consisting of homo- and copolymers of an α,β-unsaturated carboxylic acid (C). - one or more radically polymerizable organic monomers (M) and also, as constituent of a polymerization initiator system for it - one or more compounds (A) selected from the group consisting of the isomers of ascorbic acid, the salts of the isomers of ascorbic acid, the esters of the isomers of ascorbic acid and the ethers of the isomers of ascorbic acid and - one or more compounds (S) selected from the group consisting of sulfinic acids, salts of sulfinic acids and salts of organoboron compounds
Operator control apparatus for a vehicle component of a vehicle, comprising - a housing , - an operator control element arranged on the housing , which is adapted to be manually moved relative to the housing in a first direction of movement when actuated, and - a switch element which is adapted to close an electric circuit upon actuation of the operator control element in order to initiate an action of the vehicle component, characterised by a compensating mass which is coupled to the operator control element and is adapted to be moved via a mechanical coupling apparatus at least in a second direction of movement that is different from the first direction of movement when the operator control element is actuated and to reset the operator control element after it has been actuated via a weight force of the compensating mass . - a housing , - an operator control element arranged on the housing , which is adapted to be manually moved relative to the housing in a first direction of movement when actuated, and - a switch element which is adapted to close an electric circuit upon actuation of the operator control element in order to initiate an action of the vehicle component,
Device for producing green tyres , formed as a tyre building machine having at least one tyre building drum , a ply server , a core setting device and at least one turning-up device for turning up at least one ply around the cores of a green tyre and/or for pressing the plies of a green tyre against the rest of the green tyre , wherein the tyre building drum is arranged on a drum shaft and has a middle part and two drum halves , which can be moved in relation to the middle part in the axial direction of the drum shaft relative to the middle part , wherein this device has a sidewall server , with which the material of the two sidewalls of a green tyre can be transferred at the same time onto the drum halves of the tyre building drum or laid on them, characterized in that the sidewall server has two sidewall server modules , with which in each case the material of a sidewall can be transferred onto a drum half of a tyre building drum and in that the sidewall server modules are arranged at a distance from one another, so that between the sidewall server modules a clearance is arranged in the region of the sidewall server .
A process comprising combining a) a solution comprising at least one substance selected from the group consisting of: K 2 HPO 4 , an aluminum phosphate, oxalic acid, or a combination thereof, with b) a Mn 4+ doped phosphor of formula I in solid form; Ax [MF y ]:Mn 4+ I and isolating a stabilized Mn 4+ doped phosphor in solid form; wherein A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y ] ion; y is 5, 6 or 7, further comprising, prior to combining with at the least one substance, contacting the Mn 4+ doped phosphor of formula I with a fluorine-containing oxidizing agent in gaseous form at an elevated temperature, to form a product phosphor. and isolating a stabilized Mn 4+ doped phosphor in solid form; wherein A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y ] ion; y is 5, 6 or 7, further comprising, prior to combining with at the least one substance, contacting the Mn 4+ doped phosphor of formula I with a fluorine-containing oxidizing agent in gaseous form at an elevated temperature, to form a product phosphor.
A method comprising: acquiring, using one or more physical layer information data acquisition technologies , physical layer information related to cabling attached to first managed devices within a first enterprise network , wherein the first enterprise network is configured to be operated by a first enterprise , wherein each managed device comprises physical layer information data acquisition technology for automatically obtaining physical layer information related to cabling attached to the managed device ; acquiring, using one or more physical layer information data acquisition technologies , physical layer information related to cabling attached to second managed devices within a second enterprise network , wherein the second enterprise network is distinct from the first enterprise network , wherein the second network is configured to be operated by a second enterprise distinct from the first enterprise ; and aggregating, with at least one management application hosted on one or more server computers in a third network distinct from the first enterprise network and the second enterprise network , the physical layer information related to cabling attached to the first managed devices within the first enterprise network and the second managed devices within the second enterprise network by a third party as a hosted service, wherein the third network is configured to be operated by the third party distinct from the first enterprise and the second enterprise . acquiring, using one or more physical layer information data acquisition technologies , physical layer information related to cabling attached to first managed devices within a first enterprise network , wherein the first enterprise network is configured to be operated by a first enterprise , wherein each managed device comprises physical layer information data acquisition technology for automatically obtaining physical layer information related to cabling attached to the managed device ; acquiring, using one or more physical layer information data acquisition technologies , physical layer information related to cabling attached to second managed devices within a second enterprise network , wherein the second enterprise network is distinct from the first enterprise network , wherein the second network is configured to be operated by a second enterprise distinct from the first enterprise ; and aggregating, with at least one management application hosted on one or more server computers in a third network distinct from the first enterprise network and the second enterprise network , the physical layer information related to cabling attached to the first managed devices within the first enterprise network and the second managed devices within the second enterprise network by a third party as a hosted service, wherein the third network is configured to be operated by the third party distinct from the first enterprise and the second enterprise .
A device for positioning tubes each having a test tube sealed with a cap , said device comprising: i) a conveyor adapted to convey the tubes to be positioned from a tube source to a tube positioning tray ; ii) a tube positioning tray adapted to successively receive each tube from the conveyor ; iii) a detection module designed to detect the relative positioning of the cap with respect to the test tube and to provide a signal indicating to a control module the relative position of the test tube and its cap ; characterized in that said receiving tray comprises a slot extending in a substantially horizontal direction under the tube and in that the device comprises a mechanism for opening the slot , controlled by said control module so as to allow the tube to pass through the slot and to tilt it vertically with the test tube down and the cap up. i) a conveyor adapted to convey the tubes to be positioned from a tube source to a tube positioning tray ; ii) a tube positioning tray adapted to successively receive each tube from the conveyor ; iii) a detection module designed to detect the relative positioning of the cap with respect to the test tube and to provide a signal indicating to a control module the relative position of the test tube and its cap ;
Process for the preparation of Tipiracil hydrochloride crystalline form III having a content in solvents compatible with the use as a medicament, said process comprising: a) suspending in isopropanol Tipiracil hydrochloride crystalline form II; b) stirring the suspension and filtering; wherein: Tipiracil hydrochloride crystalline form II is a Tipiracil hydrochloride crystalline form having a powder X-ray diffraction pattern showing characteristic peaks at angles of 6.5°, 20.6°, 25.5°, 26.1°, 27.0°, and 30.2° as a diffraction angle (2θ ± 0.1°); and Tipiracil hydrochloride crystalline form III is a Tipiracil hydrochloride crystalline form having a powder X-ray diffraction pattern showing characteristic peaks at angles of 10.5°, 19.6°, 23.7°, 26.2°, and 31.2° as a diffraction angle (2θ ± 0.1°). a) suspending in isopropanol Tipiracil hydrochloride crystalline form II; b) stirring the suspension and filtering; Tipiracil hydrochloride crystalline form II is a Tipiracil hydrochloride crystalline form having a powder X-ray diffraction pattern showing characteristic peaks at angles of 6.5°, 20.6°, 25.5°, 26.1°, 27.0°, and 30.2° as a diffraction angle (2θ ± 0.1°); and Tipiracil hydrochloride crystalline form III is a Tipiracil hydrochloride crystalline form having a powder X-ray diffraction pattern showing characteristic peaks at angles of 10.5°, 19.6°, 23.7°, 26.2°, and 31.2° as a diffraction angle (2θ ± 0.1°).
A method of planning the positioning of first and second sets of electrode elements on a subject's body, the method comprising the steps of: obtaining a 3D model of electrical conductivity or resistivity of an anatomic volume within the subject's body at a given frequency; identifying a location of target tissue within the anatomic volume; analyzing electric fields associated with a plurality of layouts for the first and second sets of electrode elements based on the respective layouts, the 3D model of electrical conductivity or resistivity, and the identified location of the target tissue; and selecting one of the plurality of layouts based on a result of the analyzing; wherein the first set of electrode elements has a first centroid; characterized in that : the anatomic volume is located in or near a subject's neck; and in each of the plurality of layouts, the first set of electrode elements is positioned on the subject's head with the first centroid positioned on the subject's head and the second set of electrode elements is positioned on the subject's chest. obtaining a 3D model of electrical conductivity or resistivity of an anatomic volume within the subject's body at a given frequency; identifying a location of target tissue within the anatomic volume; analyzing electric fields associated with a plurality of layouts for the first and second sets of electrode elements based on the respective layouts, the 3D model of electrical conductivity or resistivity, and the identified location of the target tissue; and selecting one of the plurality of layouts based on a result of the analyzing; wherein the first set of electrode elements has a first centroid; characterized in that : the anatomic volume is located in or near a subject's neck; and in each of the plurality of layouts, the first set of electrode elements is positioned on the subject's head with the first centroid positioned on the subject's head and the second set of electrode elements is positioned on the subject's chest. the anatomic volume is located in or near a subject's neck; and in each of the plurality of layouts, the first set of electrode elements is positioned on the subject's head with the first centroid positioned on the subject's head and the second set of electrode elements is positioned on the subject's chest.