mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of a compound of formula wherein R 1, R 2, R 3, R 4 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle, said process comprising the following steps: a) reacting a compound of formula wherein R 1, R 4 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle, and R 5, R 6 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle, with a compound of formula without solvents and/or organic diluents and without acids, with formation of an intermediate compound of formula wherein R 1, R 2, R 3, R 4 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle; b) converting the compound of formula to the compound of formula by heating the reaction mixture to a temperature from 100 to 200 ° C for a time comprised from 1 to 500 minutes, or by adding a carbon allotrope or its derivatives. a) reacting a compound of formula wherein R 1, R 4 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle, and R 5, R 6 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle, with a compound of formula without solvents and/or organic diluents and without acids, with formation of an intermediate compound of formula wherein R 1, R 2, R 3, R 4 are independently selected from the group consisting of: hydrogen, C 1 -C 30 alkyl, C 2 -C 30 alkenyl, C 2 -C 30 alkynyl, C 2 -C 30 linear or branched alkyl, aryl, alkyl-aryl, C 2 -C 30 linear or branched alkenyl-aryl, C 2 -C 30 -alkynyl aryl, heterocycle; b) converting the compound of formula to the compound of formula by heating the reaction mixture to a temperature from 100 to 200 ° C for a time comprised from 1 to 500 minutes, or by adding a carbon allotrope or its derivatives.
A cooking device comprising: - a food rack designed to receive and support food being cooked; - a hollow body having a bottom section designed to rest on a work surface; - a fixing means for positioning the food rack on the hollow body in at least one cooking position and - a heat source positioned between the cooking rack and the hollow body, defining with the cooking rack an intermediate space, the cooking device furthermore comprising hot air circulation means (H, B) arranged in the intermediate space and suitable for blowing and circulating the air located in the intermediate space in order to obtain blown and circulated heat for uniform and optimal cooking, wherein said cooking device is characterised in that the hot air circulation means is an impeller formed by at least one radial blade mounted so as to rotate along an axis of rotation parallel to the longitudinal axis of the cooking device and in that the impeller is mounted integrally with the cooking rack. - a food rack designed to receive and support food being cooked; - a hollow body having a bottom section designed to rest on a work surface; - a fixing means for positioning the food rack on the hollow body in at least one cooking position and - a heat source positioned between the cooking rack and the hollow body, defining with the cooking rack an intermediate space, the cooking device furthermore comprising hot air circulation means (H, B) arranged in the intermediate space and suitable for blowing and circulating the air located in the intermediate space in order to obtain blown and circulated heat for uniform and optimal cooking, wherein said cooking device is characterised in that the hot air circulation means is an impeller formed by at least one radial blade mounted so as to rotate along an axis of rotation parallel to the longitudinal axis of the cooking device and in that the impeller is mounted integrally with the cooking rack.
A process for producing 1,2-benzisoxazole-3-methane-sulfonamide, which comprises: (a) reacting 4-hydroxycoumarin, hydroxylamine or an acid addition salt thereof, and a base in water to give a first mixture; (b) acidifying the first mixture with an acid, adding 1,2-dichloroethane thereto to give a second mixture, and removing an aqueous layer from the second mixture to give a third mixture containing 1,2-benzisoxazole-3-acetic acid and 1,2-dichloroethane; (c) removing water from the third mixture by distillation to give a fourth mixture, adding chlorosulfonic acid to the fourth mixture and reacting the mixture to give a fifth mixture, and adding a base to the fifth mixture to give a sixth mixture containing an alkali metal salt of 1,2-benzisoxazole-3-methanesulfonic acid; (d) adding phosphoryl chloride to the sixth mixture, and reacting the mixture to give a seventh mixture containing 1,2-benzisoxazole-3-methanesulfonyl chloride; (e) adding ammonia to the seventh mixture and reacting the mixture to give an eighth mixture containing 1,2-benzisoxazole-3-methanesulfonamide; and (f) isolating 1,2-benzisoxazole-3-methanesulfonamide, wherein all of (a) to (e) are conducted without isolating intermediates in solid form. (a) reacting 4-hydroxycoumarin, hydroxylamine or an acid addition salt thereof, and a base in water to give a first mixture; (b) acidifying the first mixture with an acid, adding 1,2-dichloroethane thereto to give a second mixture, and removing an aqueous layer from the second mixture to give a third mixture containing 1,2-benzisoxazole-3-acetic acid and 1,2-dichloroethane; (c) removing water from the third mixture by distillation to give a fourth mixture, adding chlorosulfonic acid to the fourth mixture and reacting the mixture to give a fifth mixture, and adding a base to the fifth mixture to give a sixth mixture containing an alkali metal salt of 1,2-benzisoxazole-3-methanesulfonic acid; (d) adding phosphoryl chloride to the sixth mixture, and reacting the mixture to give a seventh mixture containing 1,2-benzisoxazole-3-methanesulfonyl chloride; (e) adding ammonia to the seventh mixture and reacting the mixture to give an eighth mixture containing 1,2-benzisoxazole-3-methanesulfonamide; and (f) isolating 1,2-benzisoxazole-3-methanesulfonamide, wherein all of (a) to (e) are conducted without isolating intermediates in solid form.
Process for shut-down of a high temperature fuel cell stack, the process comprising the following steps: a) connecting the fuel cell stack in parallel to a power supply unit at a predefined temperature and/or voltage of the fuel cell stack, b) applying a voltage from the power supply unit of between 700 to 1500 mV per fuel cell across the fuel cell stack irrespective of the electromotive force of the fuel cell stack, c) establishing the fuel cell stack at open circuit voltage while maintaining the voltage per fuel cell from the power supply unit, d) disconnecting the fuel supply from the fuel cell stack, and e) cooling down the fuel cell stack. a) connecting the fuel cell stack in parallel to a power supply unit at a predefined temperature and/or voltage of the fuel cell stack, b) applying a voltage from the power supply unit of between 700 to 1500 mV per fuel cell across the fuel cell stack irrespective of the electromotive force of the fuel cell stack, c) establishing the fuel cell stack at open circuit voltage while maintaining the voltage per fuel cell from the power supply unit, d) disconnecting the fuel supply from the fuel cell stack, and e) cooling down the fuel cell stack.
A system for controlling movement of a table supporting an object, comprising: a first control sub-system configured to generate a first control instruction; a second control sub-system configured to generate a second control instruction; a table control sub-system operably coupled to the table; and a master controller configured to receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system, wherein the table control sub-system is configured to generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller. a first control sub-system configured to generate a first control instruction; a second control sub-system configured to generate a second control instruction; a table control sub-system operably coupled to the table; and a master controller configured to receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system, receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system, wherein the table control sub-system is configured to generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller. generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller.
A composition for controlling endoparasites in and on animals, which comprises a combination of a compound of formula and abamectin. a compound of formula and abamectin.
A workpiece machining device, in particular a panel-sizing system for sawing panels or panel stacks, having at least one movably mounted workpiece supporting table, wherein at least one workpiece supporting surface of the workpiece supporting table has a plurality of air outlets to form an air cushion between the workpiece supporting surface and a workpiece resting thereon and the workpiece machining device has at least one compressed-air source to provide the compressed air required for the air cushion, characterized in that the workpiece machining device has at least one compressed-air channel fed or feedable with compressed air by the compressed-air source and, for feeding the air outlets with compressed air, the workpiece supporting table has at least one compressed-air withdrawal connection for withdrawal of compressed air from the compressed-air channel, wherein the compressed-air withdrawal connection is movably mounted in the compressed-air channel.
A compressor comprising: a motor; a piston rod which is driven by the motor and reciprocatable within a cylinder; a seal member adapted to seal between the piston rod and the cylinder; characterized in that, the compressor further comprises: a cold state determining unit adapted to determine whether the compressor is in a cold state or not; and a rotating speed control unit adapted to control a rotating speed of the motor to increase so that a warm-up operation is executed when the cold state determining unit determines that the compressor is in the cold state, wherein the compressor has a low speed operation mode where an upper limit of the rotating speed of the motor is set low, and a high speed operation mode where the upper limit of the rotating speed of the motor is set high, the rotating speed control unit is adapted to control the rotating speed of the motor so that the warm-up operation is executed in the low speed operation mode, and the cold state determining unit is adapted to determine whether the compressor is in the cold state or not based on an ambient temperature or the ambient temperature of the lip ring and compressor or the temperature of the compressor and on a compressor pressure or a pressure within a compressed air storage tank of the compressor. a motor; a piston rod which is driven by the motor and reciprocatable within a cylinder; a seal member adapted to seal between the piston rod and the cylinder; characterized in that, the compressor further comprises: a cold state determining unit adapted to determine whether the compressor is in a cold state or not; and a rotating speed control unit adapted to control a rotating speed of the motor to increase so that a warm-up operation is executed when the cold state determining unit determines that the compressor is in the cold state, wherein a cold state determining unit adapted to determine whether the compressor is in a cold state or not; and a rotating speed control unit adapted to control a rotating speed of the motor to increase so that a warm-up operation is executed when the cold state determining unit determines that the compressor is in the cold state, wherein the compressor has a low speed operation mode where an upper limit of the rotating speed of the motor is set low, and a high speed operation mode where the upper limit of the rotating speed of the motor is set high, the rotating speed control unit is adapted to control the rotating speed of the motor so that the warm-up operation is executed in the low speed operation mode, and the cold state determining unit is adapted to determine whether the compressor is in the cold state or not based on an ambient temperature or the ambient temperature of the lip ring and compressor or the temperature of the compressor and on a compressor pressure or a pressure within a compressed air storage tank of the compressor.
A nucleic acid analyzer comprising a carousel rotatable about a rotation axis, a plurality of reaction containers held along a circumferential edge of the carousel, and a plurality of detectors each including a light source for irradiating a respective one of the reaction containers with excitation light and a detection element with a fluorescence filter for detecting fluorescence from a reaction liquid in the reaction container, wherein the detectors are removably attached, and the detectors are configured to perform fluorescence measurement independently of one another, characterised in that the detectors include a first detector adapted for the detection of the fluorophore ROX, a second detector adapted for the detection of the fluorophore Alexa405, a third detector adapted for the detection of the fluorophore Cy5 and a fourth detector adapted for the detection of the fluorophore FAM, wherein the first to fourth detectors are arranged along the circumference of the carousel so that the fourth detector for the detection of the fluorophore FAM and the first detector for the detection of the fluorophore ROX are not adjacent to each other and the first detector for the detection of the fluorophore ROX and the third detector for the detection of the fluorophore Cy5 are not adjacent to each other, whereby the differences between the wavelengths of the excitation light generated by the light sources of adjacent ones (5a, 5b; 5b, 5c; 5c, 5d) of said detectors are larger than predetermined wavelength differences, and whereby the differences between the wavelengths of the fluorescences detected through the fluorescence filters by the detection elements of the adjacent ones (5a, 5b; 5b, 5c; 5c, 5d) of said detectors are larger than predetermined wavelength differences.
Fully automatic beverage machine for preparing freshly brewed hot beverages, having at least one hot water generator (10, 20), having a brewing device which is suppliable with hot water from the hot water generator (10, 20), having a water pump (11, 21) which feeds drinking water from a drinking water supply line to the hot water generator (10, 20), and having a flow meter (12, 22) for determining the volume of drinking water fed by the water pump (11, 21), the hot water generator (10, 20) being a continuous flow heater and the automatic beverage preparation machine being equipped with a descaling system for automatic descaling of the continuous flow heater (10, 20), wherein the descaling system comprises a mixing container for mixing a descalant solution, a receiving space for a storage container for liquid descaler concentrate, and a metering pump for metered feeding of descaler concentrate from the storage container to the mixing container in which the descalant solution is mixed from descaler concentrate and water, the water pump (11, 21) is on the suction side switchably connectible via a first directional control valve to an extraction line of the mixing container in order, in the switched valve position of the first directional control valve, to feed descalant solution from the mixing container to the hot water generator (10, 20) and the water pump is on the pressure side switchably connectible via a second directional control valve to a water supply line of the mixing container in order, in the switched valve position of second directional control valve, to feed drinking water to the mixing container for mixing the descalant solution.
A system comprising: a cryogenic engine having a first motive power output member; an independently operable waste heat generating power generation apparatus having a second motive power output member, a transmission system (704 and/or 706, and/or 708) operably connected for receiving motive power inputs from one or other or both the first and the second motive power output members (700, 702); and a transmission output (80, 724, 726) operably connected for receiving motive power from the transmission system (704, 706, 708) and including a controller for controlling the operation of each of the cryogenic engine and the power generation apparatus such as to cause the supply of motive power from one or other or both thereof to said transmission system (704, 706, 708); wherein the cryogenic engine and the power generation apparatus are coupled with each other to permit the cryogenic engine and the power generation apparatus to output power via the transmission output (80, 724, 726) independently of each other and in co-operation with each other. a cryogenic engine having a first motive power output member; an independently operable waste heat generating power generation apparatus having a second motive power output member, a transmission system (704 and/or 706, and/or 708) operably connected for receiving motive power inputs from one or other or both the first and the second motive power output members (700, 702); and a transmission output (80, 724, 726) operably connected for receiving motive power from the transmission system (704, 706, 708) and including a controller for controlling the operation of each of the cryogenic engine and the power generation apparatus such as to cause the supply of motive power from one or other or both thereof to said transmission system (704, 706, 708); wherein the cryogenic engine and the power generation apparatus are coupled with each other to permit the cryogenic engine and the power generation apparatus to output power via the transmission output (80, 724, 726) independently of each other and in co-operation with each other.
An ultrathin, multilayer and encapsulated surface element for providing thermal signature adaptation with the purpose of infrared stealthing, and being also suited for camouflage in the visible, the element being flexible and comprising: - a lower layer made of an insulation substrate (3, 30); - an intermediate layer comprising a plurality of conductive tracks connectable to a power supply; - a plurality of active heat dissipation elements (2, 20) connected to the conductive tracks in the intermediate layer and capable to irreversibly provide a temperature increase by Joule effect in a given time interval when a current is fed into said heat dissipation elements, wherein each dissipation element (2, 20) comprises an electric conductive path extending between a first connexion and a second connection connecting respectively said dissipation element (2, 20) to least two of the conductive tracks, said dissipation element (2, 20) being capable of providing the temperature increase throughout said path from the first connection to the second connection when the current is fed, the heat dissipation elements (2, 20) and the conductive tracks being printed on the insulation substrate (3, 30); - an upper layer made of a protective layer; the heat dissipation elements having a size and being organized according to a spatial arrangement so as to provide a predetermined infrared spatial resolution, when a current is fed into said dissipation elements. - a lower layer made of an insulation substrate (3, 30); - an intermediate layer comprising a plurality of conductive tracks connectable to a power supply; - a plurality of active heat dissipation elements (2, 20) connected to the conductive tracks in the intermediate layer and capable to irreversibly provide a temperature increase by Joule effect in a given time interval when a current is fed into said heat dissipation elements, wherein each dissipation element (2, 20) comprises an electric conductive path extending between a first connexion and a second connection connecting respectively said dissipation element (2, 20) to least two of the conductive tracks, said dissipation element (2, 20) being capable of providing the temperature increase throughout said path from the first connection to the second connection when the current is fed, the heat dissipation elements (2, 20) and the conductive tracks being printed on the insulation substrate (3, 30); - an upper layer made of a protective layer;