mhurhangee/patent-ind-claim-en huggingface dataset:
Active compound combination comprising at least one compound of the formula (I) and at least one active compound of group (II) which is selected from (a) the group consisting of (II-1) methiocarb, (11-17) diafenthiuron, (II-18) acequinocyl, (11-19) fenazaquin, (11-20) fenpyroximate, (11-21) pyridaben, (11-22) tebufenpyrad, (11-24) fluopyram, (11-25) fluazaindolizine, (11-26) fluensulfone, (11-27) tioxazafen, (11-28) bifenazate and (11-31) a formulation comprising the three terpenes α-terpinene, p-cymene and limonene in a total amount of 15-18% (w/w) terpenes, or (b) compounds of formula (IIa) or (IIb) or (c) the group consisting of (1.34) Bacillus firmus, (2.54) Metarhizium anisopliae, (2.73) Paecilomyces lilacinus, and (7.24) natural extract or simulated blend of Chenopodium ambrosioides which contains a mixture of three terpenes, i.e. α-terpinene, p-cymene and limonene. (a) the group consisting of (II-1) methiocarb, (11-17) diafenthiuron, (II-18) acequinocyl, (11-19) fenazaquin, (11-20) fenpyroximate, (11-21) pyridaben, (11-22) tebufenpyrad, (11-24) fluopyram, (11-25) fluazaindolizine, (11-26) fluensulfone, (11-27) tioxazafen, (11-28) bifenazate and (11-31) a formulation comprising the three terpenes α-terpinene, p-cymene and limonene in a total amount of 15-18% (w/w) terpenes, or (b) compounds of formula (IIa) or (IIb) or (c) the group consisting of (1.34) Bacillus firmus, (2.54) Metarhizium anisopliae, (2.73) Paecilomyces lilacinus, and (7.24) natural extract or simulated blend of Chenopodium ambrosioides which contains a mixture of three terpenes, i.e. α-terpinene, p-cymene and limonene. (1.34) Bacillus firmus, (2.54) Metarhizium anisopliae, (2.73) Paecilomyces lilacinus, and (7.24) natural extract or simulated blend of Chenopodium ambrosioides which contains a mixture of three terpenes, i.e. α-terpinene, p-cymene and limonene.
Light adapter for a track lighting system , which comprises a mounting rail , which is curved in at least sections thereof in the longitudinal extension (L1) and has at least one mounting slot in the longitudinal extension (L1), wherein the light adapter is designed such that it can be inserted selectively in the longitudinal extension (L1) of the mounting rail into the at least one mounting slot in order to electrically connect the mounting rail , wherein the light adapter comprises an adapter body ; characterised in that the adapter body is divided into adapter segments in a longitudinal extension (L2) of the adapter body , wherein in each case two adapter segments are connected to each other in a bendable area , wherein the adapter body in the bendable area is designed to be bendable relative to the longitudinal extension (L2) of the adapter body .
A longitudinal adjusting device for a vehicle seat with a floor rail for fastening to a vehicle floor, the floor rail having a base wall for resting on the vehicle floor, with a seat rail which is displaceable with respect to the floor rail , with a spindle which is rigidly coupled to the floor rail , with a gear , which has a spindle nut, which is in engagement with the spindle , and is axially rigidly coupled to the seat rail , and with fastening means (22a, b), which are guided through fastening openings (20a, b) on a fastening wall of the seat rail for fastening the gear on the seat rail , the fastening wall being arranged at an angle to the base wall , the seat rail having a side wall arranged substantially parallel to the fastening wall , the side wall having side openings (21a, b) which are flush with the fastening openings (20a, b) and the fastening means (22a, b) being guided through the side openings (21a, b), characterized in that the gear has a gear holder with a central part and with side parts (15a, b) flanking the central part for fastening the gear to the seat rail and in that the side parts (15a, b) in each case have a holder opening (19a, b), through which the fastening means (22a, b) are guided in each case. the side wall having side openings (21a, b) which are flush with the fastening openings (20a, b) and the fastening means (22a, b) being guided through the side openings (21a, b), characterized in that the gear has a gear holder with a central part and with side parts (15a, b) flanking the central part for fastening the gear to the seat rail and in that the side parts (15a, b) in each case have a holder opening (19a, b), through which the fastening means (22a, b) are guided in each case.
A composition comprising two parts, a first part comprising a first solution and a second part comprising a second solution, wherein the first solution comprises one or more pre-polymers, a non-aqueous solvent, a polymerization co-initiator or initiator, and optionally one or more chain extenders and additives; and the second solution comprises a polymerization initiator or co-initiator, a non-aqueous solvent, and optionally one or more chain extenders and additives wherein the composition comprises 20-80% non-aqueous solvent by weight; wherein the pre-polymer comprises compounds having at least two functional groups selected from acrylate, methacrylate or vinyl functional groups; optionally, wherein the pre-polymer is selected from the group consisting of ethoxylated bisphenol A diacrylate, ethoxylated bisphenol A diacrylate (EBPADA), ethoxylated trimethylolpropane triacrylate, ethoxylated trimethylolpropane triacrylate, ethoxylated trimethylolpropane triacrylate (PEG-T), propoxylated trimethylolpropane triacrylate (PTMPTA), pentaerythriol triacrylate, ethoxylated pentaerythritol tetraacrylate, pentaerythritol tetraacrylate, and the methacrylic variants thereof, divinyl adipate, 1,4 dibutane diol divinyl ether, di and tri-ethylene glycol divinyl ether, allyl ether, diallyl maleate, trimethyl propane diallyl ether, and combinations thereof. the first solution comprises one or more pre-polymers, a non-aqueous solvent, a polymerization co-initiator or initiator, and optionally one or more chain extenders and additives; and the second solution comprises a polymerization initiator or co-initiator, a non-aqueous solvent, and optionally one or more chain extenders and additives wherein the composition comprises 20-80% non-aqueous solvent by weight;
A vision system for an ego motor vehicle , comprising - an imaging apparatus adapted to capture images from a surrounding of the ego motor vehicle , and - a data processing device providing -- a vehicle detector adapted to detect another motor vehicle in the surrounding of the ego vehicle by processing the images captured by the imaging apparatus , and -- a slip detector adapted to detect a slippery condition of a road ahead of the ego motor vehicle , characterized in that - the vision system comprises a vehicle motion estimator and a trajectory predictor , wherein - the vehicle motion estimator is adapted to estimate the motion of the other motor vehicle based on the output of the vehicle detector , and - the trajectory predictor is adapted to predict a normal condition trajectory of the other motor vehicle based on captured images , output of the vehicle detector and/or auxiliary information , wherein a normal condition trajectory is a trajectory under the assumption that the road is not, or not significantly, slippery; - the slip detector detects a slippery condition of the road on the basis of a comparison between the output of the vehicle motion estimator and the output of the trajectory predictor . - an imaging apparatus adapted to capture images from a surrounding of the ego motor vehicle , and - a data processing device providing -- a vehicle detector adapted to detect another motor vehicle in the surrounding of the ego vehicle by processing the images captured by the imaging apparatus , and -- a slip detector adapted to detect a slippery condition of a road ahead of the ego motor vehicle , characterized in that -- a vehicle detector adapted to detect another motor vehicle in the surrounding of the ego vehicle by processing the images captured by the imaging apparatus , and -- a slip detector adapted to detect a slippery condition of a road ahead of the ego motor vehicle , characterized in that - the vision system comprises a vehicle motion estimator and a trajectory predictor , wherein - the vehicle motion estimator is adapted to estimate the motion of the other motor vehicle based on the output of the vehicle detector , and - the trajectory predictor is adapted to predict a normal condition trajectory of the other motor vehicle based on captured images , output of the vehicle detector and/or auxiliary information , wherein a normal condition trajectory is a trajectory under the assumption that the road is not, or not significantly, slippery; - the slip detector detects a slippery condition of the road on the basis of a comparison between the output of the vehicle motion estimator and the output of the trajectory predictor .
An apparatus for distribution of frequency reference to a receiving end over a transmission medium , the apparatus comprising a first mixer , preferably of an up-conversion type, adapted to mix a frequency reference signal having a reference frequency with a local oscillator signal having a local oscillator frequency, wherein a mixing product of the first mixer represents a forward frequency reference signal; a communication section adapted to transmit the forward frequency reference signal over the transmission medium to the receiving end and adapted to receive a first backward frequency reference signal over the transmission medium from the receiving end , the first backward frequency reference signal being formed by a portion of the forward frequency reference signal reflected back from the receiving end or by replicating the forward frequency reference signal in the receiving end and transmitting the replicated forward frequency reference signal back from the receiving end ; a second mixer being adapted to mix the first backward frequency reference signal with the local oscillator signal having the local oscillator frequency, wherein a mixing product of the second mixer represents a second backward frequency reference signal; and a phase comparator and control circuit adapted to adjust the local oscillator frequency based on a phase shift of the second backward frequency reference signal so as to compensate for a phase shift of the forward frequency reference signal that occurs in the transmission medium . a first mixer , preferably of an up-conversion type, adapted to mix a frequency reference signal having a reference frequency with a local oscillator signal having a local oscillator frequency, wherein a mixing product of the first mixer represents a forward frequency reference signal; a communication section adapted to transmit the forward frequency reference signal over the transmission medium to the receiving end and adapted to receive a first backward frequency reference signal over the transmission medium from the receiving end , the first backward frequency reference signal being formed by a portion of the forward frequency reference signal reflected back from the receiving end or by replicating the forward frequency reference signal in the receiving end and transmitting the replicated forward frequency reference signal back from the receiving end ; a second mixer being adapted to mix the first backward frequency reference signal with the local oscillator signal having the local oscillator frequency, wherein a mixing product of the second mixer represents a second backward frequency reference signal; and a phase comparator and control circuit adapted to adjust the local oscillator frequency based on a phase shift of the second backward frequency reference signal so as to compensate for a phase shift of the forward frequency reference signal that occurs in the transmission medium .
A plasma cutting apparatus (10; 110), comprising: - a housing comprising a base (18; 112), an upright pedestal (20; 114) extending upward from the base (18; 112) and a stationary head (22; 116) cantilevered from the upright pedestal (20; 114); - a workpiece support (14; 118) extending from the upright pedestal (20; 114) and located below the stationary head (22; 116); - a movable plasma nozzle (16; 120) extending downward from an underside of the stationary head (22; 116) and oriented for delivering a cutting plasma generally along one direction and toward a workpiece on the workpiece support (14; 118); and - a nozzle drive arrangement mounted to the stationary head (22; 116) and connected for moving the plasma nozzle (16; 120) during a cutting operation, characterized by further including permanent, removable, or deflectable shielding (28; 122) which is included at the underside of the stationary head (22; 116) and adjustable in height for raising and lowering the shielding (28 ; 122) to facilitate aligning of the plasma nozzle (16 ; 120) before cutting and for accessing the plasma nozzle (16 ; 120) for repairing and/or replacing the plasma nozzle (16 ; 120). - a housing comprising a base (18; 112), an upright pedestal (20; 114) extending upward from the base (18; 112) and a stationary head (22; 116) cantilevered from the upright pedestal (20; 114); - a workpiece support (14; 118) extending from the upright pedestal (20; 114) and located below the stationary head (22; 116); - a movable plasma nozzle (16; 120) extending downward from an underside of the stationary head (22; 116) and oriented for delivering a cutting plasma generally along one direction and toward a workpiece on the workpiece support (14; 118); and - a nozzle drive arrangement mounted to the stationary head (22; 116) and connected for moving the plasma nozzle (16; 120) during a cutting operation,
A torsional viscous damper for damping torsional vibrations transmitted to a shaft of an engine, the damper having a central rotation axis (A) and comprising: - a casing and a lid coupled together for delimiting a closed chamber , annular with respect to the central axis (A) and containing a viscous damping fluid; and - an inertial mass housed in the chamber so as to be immersed in the viscous fluid; wherein: - the damper comprises a pair of half-shells , a first half-shell defining the casing and a second half-shell defining the lid, each half-shell defining part of said chamber and part of an axial hub configured to be engaged by said shaft , - the half-shells are axially coupled to one another for defining together said chamber and said hub , - the half-shells are fixed to each other by means of a single welding which extends angularly about the central axis (A); characterised in that each half-shell has an annular shape around the central axis (A) for defining said hub , each half-shell having an inner edge radially facing the central axis (A) and an outer edge radially opposite to the inner edge ; - the inner edges of the half-shells coupled to one another define a wedged radial end of the damper configured to be fixed to said shaft ; - the outer edges of the half-shells coupled to one another define a free radial end of the damper ; and wherein said single welding is arranged at the free radial end . - a casing and a lid coupled together for delimiting a closed chamber , annular with respect to the central axis (A) and containing a viscous damping fluid; and - an inertial mass housed in the chamber so as to be immersed in the viscous fluid; - the damper comprises a pair of half-shells , a first half-shell defining the casing and a second half-shell defining the lid, each half-shell defining part of said chamber and part of an axial hub configured to be engaged by said shaft , - the half-shells are axially coupled to one another for defining together said chamber and said hub , - the half-shells are fixed to each other by means of a single welding which extends angularly about the central axis (A); each half-shell has an annular shape around the central axis (A) for defining said hub , each half-shell having an inner edge radially facing the central axis (A) and an outer edge radially opposite to the inner edge ; - the inner edges of the half-shells coupled to one another define a wedged radial end of the damper configured to be fixed to said shaft ; - the outer edges of the half-shells coupled to one another define a free radial end of the damper ; - the inner edges of the half-shells coupled to one another define a wedged radial end of the damper configured to be fixed to said shaft ; - the outer edges of the half-shells coupled to one another define a free radial end of the damper ; and wherein said single welding is arranged at the free radial end .
A ship comprising a ship engine , wherein the ship is designed for transferring heat from an exhaust chamber of the ship engine to a special metal sheet fixed on the lower part of the front edge of the ship for raising the temperature of seawater in contact with said special metal sheet, wherein said special metal sheet is fixed on the lower part of the ship's front edge which is in contact with sea water.
A method of archiving a document by a user comprising: - a step of transmitting the document and a symmetric key to a receiver operator ; - a step , performed by the receiver operator , of encrypting the document with the symmetric key; - a step of transmitting said encrypted document to an archiving operator separate from the receiver operator ; - a step of checking the deletion encryption of the document; - a step , performed by the receiver operator , of destroying the encrypted document and the symmetric key; said method being characterised in that it further comprises a step of encrypting the symmetric key with a key of a key pair of asymmetric keys, and in that the step of transmitting the encrypted document to the archiving operator also comprises transmitting the encrypted symmetric key to the archiving operator. - a step of transmitting the document and a symmetric key to a receiver operator ; - a step , performed by the receiver operator , of encrypting the document with the symmetric key; - a step of transmitting said encrypted document to an archiving operator separate from the receiver operator ; - a step of checking the deletion encryption of the document; - a step , performed by the receiver operator , of destroying the encrypted document and the symmetric key; said method being characterised in that it further comprises a step of encrypting the symmetric key with a key of a key pair of asymmetric keys, and in that the step of transmitting the encrypted document to the archiving operator also comprises transmitting the encrypted symmetric key to the archiving operator.
A method of controlling an additive manufacturing process in which a directed energy source is used to selectively fuse powdered material to form a workpiece, in the presence of a gas flow, the method comprising: using at least one gas flow sensor to generate at least one gas flow rate measurement, wherein at least one gas flow sensor measures gas flow rate at a predetermined location of lowest flow over a build surface; wherein the predetermined location of lowest flow over the build surface is a location near a trailing edge of a build chamber and on a side of the build chamber ; and controlling at least one aspect of the additive manufacturing process in response to the at least one gas flow rate measurement, wherein the step of controlling includes changing at least one process parameter of the additive manufacturing process, wherein the at least one process parameter includes a gas flow rate; wherein the step of controlling comprises increasing a gas flow rate of the gas flow if the at least one gas flow rate measurement falls lower than a predetermined minimum gas flow rate. using at least one gas flow sensor to generate at least one gas flow rate measurement, wherein at least one gas flow sensor measures gas flow rate at a predetermined location of lowest flow over a build surface; wherein the predetermined location of lowest flow over the build surface is a location near a trailing edge of a build chamber and on a side of the build chamber ; and controlling at least one aspect of the additive manufacturing process in response to the at least one gas flow rate measurement, wherein the step of controlling includes changing at least one process parameter of the additive manufacturing process, wherein the at least one process parameter includes a gas flow rate; wherein the step of controlling comprises increasing a gas flow rate of the gas flow if the at least one gas flow rate measurement falls lower than a predetermined minimum gas flow rate.
A coin batch insertion device that separates and feeds a plurality of inserted coins (C), inserted as a batch, one by one, the coin batch insertion device comprising: a cylindrical portion a rotor arranged inside the cylindrical portion ; and a floor portion including a coin dropping hole wherein the inserted coins are fed by conveying the coins, maintained in an erect state, between an inner peripheral wall of the cylindrical portion and an outer peripheral wall of the rotor along the inner peripheral wall of the cylindrical portion using rotation of the rotor and dropping the coins into the coin dropping hole one by one. a cylindrical portion a rotor arranged inside the cylindrical portion ; and a floor portion including a coin dropping hole wherein the inserted coins are fed by conveying the coins, maintained in an erect state, between an inner peripheral wall of the cylindrical portion and an outer peripheral wall of the rotor along the inner peripheral wall of the cylindrical portion using rotation of the rotor and dropping the coins into the coin dropping hole one by one.
An alkaline water electrolysis method comprising: supplying an electrolytic solution obtained by dispersing a catalyst comprising a hybrid cobalt hydroxide nanosheet (Co-NS) being a composite of a cobalt hydroxide and Tris-NH 2 to an anode chamber and a cathode chamber that form an electrolytic cell, and using the electrolytic solution for electrolysis in each chamber in common, and performing electrolytic deposition of the Co-NS in the electrolytic cell during operation to electrolytically deposit the Co-NS on a surface of an electrically conductive substrate that forms an oxygen generation anode and has the catalyst layer formed on a surface thereof, thereby recovering and improving electrolysis performance. supplying an electrolytic solution obtained by dispersing a catalyst comprising a hybrid cobalt hydroxide nanosheet (Co-NS) being a composite of a cobalt hydroxide and Tris-NH 2 to an anode chamber and a cathode chamber that form an electrolytic cell, and using the electrolytic solution for electrolysis in each chamber in common, and performing electrolytic deposition of the Co-NS in the electrolytic cell during operation to electrolytically deposit the Co-NS on a surface of an electrically conductive substrate that forms an oxygen generation anode and has the catalyst layer formed on a surface thereof, thereby recovering and improving electrolysis performance.