mhurhangee/ep-ind-claims huggingface dataset:
A herbicidal composition which comprises as active ingredients (a) a herbicidal benzoylpyrazole compound of the formula or its salt, wherein R 1 is -CH 3 or -CH 2 CH 3, R 2 is -H, R 3 is -CH 3 or -CH 2 CH 3, R 4 is CH 3, R 5 is - OCH 2 CH 2 OCH 3, R 6 is -SO 2 CH 3, and A is -CH(CH 3)-, and (b) other herbicidal compound, wherein said (b) other herbicidal compound is at least one compound selected from: the phenoxy compounds 2,4-D and 2,4-D-ethyl; the aromatic carboxylic acid compounds dicamba and clopyralid; the urea compound linuron; the triazine compounds atrazine and terbuthylazine; the hydroxybenzonitrile compound bromoxynil-octanoate; the quaternary ammonium salt compounds paraquat and diquat; the cyclic imide compound flumioxazin and fluthiacet-methyl; the aryloxyphenoxypropionic acid compound fluazifop-P-butyl; the sulfonylurea compounds rimsulfuron, nicosulfuron, prosulfuron, halosulfuron-methyl and thifensulfuron-methyl; the triazolopyrimidinesulfonamide compound flumetsulam; the imidazolinone compounds imazapyr and imazethapyr; the dinitroaniline compound pendimethalin; the chloroacetamide compounds metolachlor, S-metolachlor, pethoxamid, acetochlor, dimethenamid-P and propisochlor; fluroxypyr-meptyl, pyridate, bentazone-sodium, amicarbazone, carfentrazone-ethyl, pyraflufen-ethyl, saflufenacil, sulcotrione, mesotrione, tembotrione, isoxaflutole, glyphosate-potassium, glyphosate-isopropylammonium, glufosinate-ammonium, flufenacet, pyroxasulfone and pinoxaden. the phenoxy compounds 2,4-D and 2,4-D-ethyl; the aromatic carboxylic acid compounds dicamba and clopyralid; the urea compound linuron; the triazine compounds atrazine and terbuthylazine; the hydroxybenzonitrile compound bromoxynil-octanoate; the quaternary ammonium salt compounds paraquat and diquat; the cyclic imide compound flumioxazin and fluthiacet-methyl; the aryloxyphenoxypropionic acid compound fluazifop-P-butyl; the sulfonylurea compounds rimsulfuron, nicosulfuron, prosulfuron, halosulfuron-methyl and thifensulfuron-methyl; the triazolopyrimidinesulfonamide compound flumetsulam; the imidazolinone compounds imazapyr and imazethapyr; the dinitroaniline compound pendimethalin; the chloroacetamide compounds metolachlor, S-metolachlor, pethoxamid, acetochlor, dimethenamid-P and propisochlor; fluroxypyr-meptyl, pyridate, bentazone-sodium, amicarbazone, carfentrazone-ethyl, pyraflufen-ethyl, saflufenacil, sulcotrione, mesotrione, tembotrione, isoxaflutole, glyphosate-potassium, glyphosate-isopropylammonium, glufosinate-ammonium, flufenacet, pyroxasulfone and pinoxaden.
A method for arc handling during plasma processing, comprising the steps of: during plasma processing, applying power with a power supply to a plasma load at a first voltage polarity; energizing an energy storage device disposed between a first switch and a second switch; when an arc is detected, closing the first and second switches to apply power from the energy storage device to the plasma load with a reverse voltage polarity that is opposite of the first voltage polarity; when the arc is extinguished, opening one of the first and second switches to prevent application of the reverse voltage polarity to the plasma load; after a cooling period, opening the other of the first and second switches, so that both switches are open, to prevent initiation of another arc; and after both switches are opened, reapplying power to the plasma load at the first voltage polarity to resume the plasma processing. during plasma processing, applying power with a power supply to a plasma load at a first voltage polarity; energizing an energy storage device disposed between a first switch and a second switch; when an arc is detected, closing the first and second switches to apply power from the energy storage device to the plasma load with a reverse voltage polarity that is opposite of the first voltage polarity; when the arc is extinguished, opening one of the first and second switches to prevent application of the reverse voltage polarity to the plasma load; after a cooling period, opening the other of the first and second switches, so that both switches are open, to prevent initiation of another arc; and after both switches are opened, reapplying power to the plasma load at the first voltage polarity to resume the plasma processing.
A load-connection-state detection circuit comprising: a power terminal that is supplied with power from the outside; a connector that supplies power to a load circuit connected to the ground; and a current limiting circuit, wherein the current limiting circuit includes a PNP first transistor having an emitter coupled to the power terminal and having a collector connected to the connector, an NPN second transistor having an emitter coupled to the power terminal, having a collector coupled to a base of the first transistor, and having a base coupled to the collector of the first transistor, and a first resistance connected between the emitter and the collector of the first transistor, in such a manner that a current flows via the first resistance when a current is limited, characterized in that the load-connection-state detection circuit further includes a switching element having a control end, one end of the switching element is connected to the base of the second transistor, the other end of the switching element is connected to the ground, and the control end is connected to the collector of the second transistor. a power terminal that is supplied with power from the outside; a connector that supplies power to a load circuit connected to the ground; and a current limiting circuit, wherein the current limiting circuit includes a PNP first transistor having an emitter coupled to the power terminal and having a collector connected to the connector, an NPN second transistor having an emitter coupled to the power terminal, having a collector coupled to a base of the first transistor, and having a base coupled to the collector of the first transistor, and a first resistance connected between the emitter and the collector of the first transistor, in such a manner that a current flows via the first resistance when a current is limited, characterized in that the load-connection-state detection circuit further includes a switching element having a control end, one end of the switching element is connected to the base of the second transistor, the other end of the switching element is connected to the ground, and the control end is connected to the collector of the second transistor.
An apparatus for heating a reductant delivery line, wherein the reductant delivery line receives reductant from a reductant tank containing reductant and is heated using coolant from an internal combustion engine and a portion of a coolant line is positioned within the reductant tank, characterized in that the apparatus further comprises a coolant temperature module configured to determine a reductant tank outlet coolant temperature target and a coolant flow rate module configured to generate a coolant valve flow rate command and transmit the coolant valve flow rate command to a coolant valve controllable to regulate a flow rate of coolant through the coolant line, wherein the coolant valve flow rate command is based on the reductant tank outlet coolant temperature target, a reductant tank inlet coolant temperature, and a reductant tank reductant temperature.
Household electrical appliance for domestic use including means for heating water and a first device for releasing an anti-scale agent into the water intended for being heated, characterised in that it comprises at least one second device for releasing an anti-scale agent (8; 108) into the water, the second device for releasing an anti-scale agent (8; 108) diffusing said anti-scale agent with a higher release speed than the release speed of the anti-scale agent diffused by the first release device, the first release device and the second release device (8; 108) being arranged in two different places on the appliance.
Method, for example implemented by computer means, for determining the values of a set of n optical parameters (P 1, P 2,..., P n) of an ophthalmic lens, n being an integer greater than or equal to 1, the method comprising: - an nominal ophthalmic lens data providing step during which nominal data representing an nominal ophthalmic lens is provided, - an ophthalmic lens providing step during which an ophthalmic lens is provided, the ophthalmic lens comprising at least two optical surfaces at least one of which is manufactured based on the corresponding surface of the nominal ophthalmic lens also named "nominal surface", - an optical surface measuring step during which the at least one manufactured surface of the ophthalmic lens is measured, - a surface errors determining step during which a set of m surface error parameters (α 1, α 2,..., α m) is determined, m being an integer greater than or equal to 1, the surface error parameters representing the differences in position and/or shape of the measured optical surface and the corresponding surface of the nominal ophthalmic lens, - an optical parameter determining step during which each optical parameter of the set of optical parameters is determined by: P i = P i,0 + ∑ j = 1 m ∂ P i ∂ α j 0 × Δ α j + A i with P i the value of the ith optical parameter of the manufactured optical lens, P i,0 the value of the ith optical parameter of the nominal optical lens, ∂ P i ∂ α j 0 the value of the derivative of P i with respect to the jth surface error parameter α j on the nominal surface and Δα j the value of the jth surface error parameter, and A i a combination of terms of order greater or equal to 2 for each P i. - an nominal ophthalmic lens data providing step during which nominal data representing an nominal ophthalmic lens is provided, - an ophthalmic lens providing step during which an ophthalmic lens is provided, the ophthalmic lens comprising at least two optical surfaces at least one of which is manufactured based on the corresponding surface of the nominal ophthalmic lens also named "nominal surface", - an optical surface measuring step during which the at least one manufactured surface of the ophthalmic lens is measured, - a surface errors determining step during which a set of m surface error parameters (α 1, α 2,..., α m) is determined, m being an integer greater than or equal to 1, the surface error parameters representing the differences in position and/or shape of the measured optical surface and the corresponding surface of the nominal ophthalmic lens, - an optical parameter determining step during which each optical parameter of the set of optical parameters is determined by: P i = P i,0 + ∑ j = 1 m ∂ P i ∂ α j 0 × Δ α j + A i with P i the value of the ith optical parameter of the manufactured optical lens, P i,0 the value of the ith optical parameter of the nominal optical lens, ∂ P i ∂ α j 0 the value of the derivative of P i with respect to the jth surface error parameter α j on the nominal surface and Δα j the value of the jth surface error parameter, and A i a combination of terms of order greater or equal to 2 for each P i.
An apparatus for restoring multi-channel audio signals, the apparatus comprising: a High-Efficiency Advanced Audio Coding (HE-AAC) decoder adapted to decode a downmix signal bitstream and outputting downmix signals of a real Quadrature Mirror Filter domain, a complex QMF domain, and time domain; and a high-quality Moving Picture Experts Group (MPEG) surround decoder adapted to generate multi-channel audio signals by using side information bitstream and the downmix signals, wherein the high-quatity MPEG surround decoder includes a QMF analysis filter bank, a delay unit and a Nyquist analysis filter bank, the downmix signals of the time domain being input to the delay unit through the QMF analysis bank, the downmix signals of the complex QMF domain being directly input to the delay unit, and the output of the delay unit being input to the Nyquist analysis filter bank along with QMF residual input signals, wherein the delay unit is adapted to compensate for a delay introduced in real-to-complex conversion of a low-power MPEG surround decoder. a High-Efficiency Advanced Audio Coding (HE-AAC) decoder adapted to decode a downmix signal bitstream and outputting downmix signals of a real Quadrature Mirror Filter domain, a complex QMF domain, and time domain; and a high-quality Moving Picture Experts Group (MPEG) surround decoder adapted to generate multi-channel audio signals by using side information bitstream and the downmix signals, wherein the high-quatity MPEG surround decoder includes a QMF analysis filter bank, a delay unit and a Nyquist analysis filter bank, the downmix signals of the time domain being input to the delay unit through the QMF analysis bank, the downmix signals of the complex QMF domain being directly input to the delay unit, and the output of the delay unit being input to the Nyquist analysis filter bank along with QMF residual input signals, wherein the delay unit is adapted to compensate for a delay introduced in real-to-complex conversion of a low-power MPEG surround decoder.
A leak detection apparatus comprising a test inlet for connection of a test chamber, a high-vacuum pump connected to a test gas detector, and a pre-vacuum pump including at least two pump stages (22, 23), characterized in that a tap is provided between said pump stages (22, 23) of the pre-vacuum pump and that the pump stages can be selectively operated in series or in parallel.
A boil-off gas recovery system comprising: a tank where a liquefied gas is stored; a reciprocating compressor to which lubricating oil is supplied, the compressor that compresses a boil-off gas generated by vaporization of part of the liquefied gas in the tank; an oil separation unit that separates the lubricating oil contained in the boil-off gas which is discharged from the compressor; and a re-liquefying system having a heat exchanger that cools the boil-off gas from which the lubricating oil is already separated by the oil separation unit by heat exchange with the boil-off gas supplied to the compressor from the tank, the re-liquefying system where the liquefied boil-off gas is returned to the tank, characterized in that the lubricating oil is a poly-α-olefin. a tank where a liquefied gas is stored; a reciprocating compressor to which lubricating oil is supplied, the compressor that compresses a boil-off gas generated by vaporization of part of the liquefied gas in the tank; an oil separation unit that separates the lubricating oil contained in the boil-off gas which is discharged from the compressor; and a re-liquefying system having a heat exchanger that cools the boil-off gas from which the lubricating oil is already separated by the oil separation unit by heat exchange with the boil-off gas supplied to the compressor from the tank, the re-liquefying system where the liquefied boil-off gas is returned to the tank, characterized in that the lubricating oil is a poly-α-olefin.
A hail sensor having an impact surface, on which precipitation can impinge and which is formed from wires or wire sections, cords or cord sections which are guided in a parallel manner at at least approximately equal distances from one another and do not cross, so that, between the wires or wire sections, cords or cord sections, there is a distance through which liquid precipitation can easily pass after striking the impact surface wherein to each of the wires or wire sections, cords or cord sections a converter is assigned which is arranged and formed in such a way that, in case of a deflection of the impact surface as a result of precipitation striking the impact surface, said a corresponding converter output signal surrenders.
A system for use in setting up a controlling device used to command a plurality of controllable appliances (102, 106), the system comprising: a remote source; and a first controllable appliance in communication with the remote source, the first controllable appliance having a processing device and a computer readable media on which is stored executable instructions which, when executed by the processing device, cause the first controllable appliance to: receive a signal from the controlling device indicative of the controlling device being placed into a state in which the controlling device is to be setup to command a second controllable appliance; and respond to the received signal by loading a setup application and then initiating a display of instructions for setting up the controlling device to command the second controllable appliance; wherein the displayed instructions are based at least in part on instruction data accessed by the first controllable appliance from the remote source, characterized in that the instructions include a series of navigable menus from which a user can select a device type and brand of the second controllable appliance. a remote source; and a first controllable appliance in communication with the remote source, the first controllable appliance having a processing device and a computer readable media on which is stored executable instructions which, when executed by the processing device, cause the first controllable appliance to: receive a signal from the controlling device indicative of the controlling device being placed into a state in which the controlling device is to be setup to command a second controllable appliance; and respond to the received signal by loading a setup application and then initiating a display of instructions for setting up the controlling device to command the second controllable appliance; receive a signal from the controlling device indicative of the controlling device being placed into a state in which the controlling device is to be setup to command a second controllable appliance; and respond to the received signal by loading a setup application and then initiating a display of instructions for setting up the controlling device to command the second controllable appliance; wherein the displayed instructions are based at least in part on instruction data accessed by the first controllable appliance from the remote source, characterized in that the instructions include a series of navigable menus from which a user can select a device type and brand of the second controllable appliance.
A bioreactor system for culturing a floating microcrop, the bioreactor system comprising: a bioreactor container configured to contain the floating microcrop in sufficient growth medium to permit normal growth of the floating microcrop, at least one coupling device comprising a star having a plurality of arms joined at a connection point, the coupling device configured to be sufficiently buoyant relative to the growth medium such that a cross section of the coupling device is continuously positioned at or immediately below a top surface of the growth medium; a fluid conveyance mechanism configured to move the growth medium and cause movement of the coupling device, wherein movement of the coupling device causes movement of at least a portion of the floating microcrop on the top surface of the growth medium. a bioreactor container configured to contain the floating microcrop in sufficient growth medium to permit normal growth of the floating microcrop, at least one coupling device comprising a star having a plurality of arms joined at a connection point, the coupling device configured to be sufficiently buoyant relative to the growth medium such that a cross section of the coupling device is continuously positioned at or immediately below a top surface of the growth medium; a fluid conveyance mechanism configured to move the growth medium and cause movement of the coupling device, wherein movement of the coupling device causes movement of at least a portion of the floating microcrop on the top surface of the growth medium.
A compound having a first, a second and a third portion wherein the second portion has the following structure: wherein α represents a point of attachment to the first portion and β represents a point of attachment to the third portion; wherein the first portion comprises a base, and the third portion comprises a detectable marker.
Method for operating a heating device, which heating device has - a fluid reservoir, - a heat exchanger, the supply line of which is hydraulically connected to the fluid reservoir at a geodetically lower position than the return line of the said heat exchanger, - a pump, which is arranged in the supply line or in the return line, - a bypass, which is hydraulically connected to the supply line and to the return line, the bypass bypassing the heat exchanger and the pump, and - a three-way valve, arranged in the connection of the bypass to the supply line or in the connection of the bypass to the return line, wherein the method comprises the following steps: a) activation of the pump and flow of fluid through the heat exchanger, b) transfer of heat to the fluid in the heat exchanger, c) determination of a first fluid temperature in the return line between the heat exchanger and the bypass, d) comparison of the first fluid temperature with a setpoint temperature, and e1) switching of the three-way valve into a second switching position, in which the bypass is closed, if the first fluid temperature is greater than the setpoint temperature, characterized by e2) switching of the three-way valve into a first switching position, in which the bypass is at least partially released, if the first fluid temperature is less than the setpoint temperature, wherein, whenever the bypass is partially open, the three-way valve quantitatively distributes fluid that is heated to the setpoint temperature between the bypass and the return line leading to the fluid reservoir. - a fluid reservoir, - a heat exchanger, the supply line of which is hydraulically connected to the fluid reservoir at a geodetically lower position than the return line of the said heat exchanger, - a pump, which is arranged in the supply line or in the return line, - a bypass, which is hydraulically connected to the supply line and to the return line, the bypass bypassing the heat exchanger and the pump, and - a three-way valve, arranged in the connection of the bypass to the supply line or in the connection of the bypass to the return line, a) activation of the pump and flow of fluid through the heat exchanger, b) transfer of heat to the fluid in the heat exchanger, c) determination of a first fluid temperature in the return line between the heat exchanger and the bypass, d) comparison of the first fluid temperature with a setpoint temperature, and e1) switching of the three-way valve into a second switching position, in which the bypass is closed, if the first fluid temperature is greater than the setpoint temperature, e2) switching of the three-way valve into a first switching position, in which the bypass is at least partially released, if the first fluid temperature is less than the setpoint temperature, wherein, whenever the bypass is partially open, the three-way valve quantitatively distributes fluid that is heated to the setpoint temperature between the bypass and the return line leading to the fluid reservoir.