mhurhangee/patent-ind-claim-en huggingface dataset:
Long life pastry for specific nutritional purposes characterized in that a dough for preparation thereof is made from a mixture consisting of composite flour in the amount of 56 to 60 % (w/w), edible fat and/or emulsified fat in the amount of 20 to 27 % (w/w), sweetener excluding sucrose, glucose, fructose, and isoglucose in the amount of 0.8 to 12 % (w/w), milk substitute produced from plant raw materials in the amount of 3 to 7 % (w/w), flavouring and seasoning ingredients in the amount of 0.001 to 3 % (w/w), oilseeds in the amount of 1 to 3 % (w/w), lecithin in the amount of 0.5 to 0.7% (w/w), and water in amounts dependent on binding capacities of the composite flour and other components of the mixture, wherein the composite flour comprises at least three types of flours, one type of which is corn flour in the amount of 40 to 60 % (w/w) relative to the amount of the composite flour and at least two types of flours are selected from the group represented by buckwheat flour, millet flour, chickpea flour, and rice flour, wherein buckwheat flour is in the amount of 10 to 30% (w/w) relative to the amount of the composite flour, the millet flour is in the amount of 10 to 30 % (w/w) relative to the amount of the composite flour, the chickpea flour is in the amount of 10 to 30 % (w/w) relative to the amount of the composite flour, the rice flour is in the amount of 5 to 15 % (w/w) relative to the amount of the composite flour.
A control system configured to control a motor , the control system comprising: a pulse-width modulation module configured to generate three duty cycle values based on three voltage requests, respectively, wherein a plurality of solid-state switches are configured to control three phases of the motor in response to the three duty cycle values, respectively; a pulse skip determination module that is configured to generate a pulse skip signal; and a duty cycle adjustment module that is configured to selectively prevent the plurality of solid-state switches from switching during intervals specified by the pulse skip signal, characterised in that the pulse skip signal is based on a series of integer values, wherein the series of integer values is a pseudorandom number sequence. a pulse-width modulation module configured to generate three duty cycle values based on three voltage requests, respectively, wherein a plurality of solid-state switches are configured to control three phases of the motor in response to the three duty cycle values, respectively; a pulse skip determination module that is configured to generate a pulse skip signal; and a duty cycle adjustment module that is configured to selectively prevent the plurality of solid-state switches from switching during intervals specified by the pulse skip signal, characterised in that the pulse skip signal is based on a series of integer values, wherein the series of integer values is a pseudorandom number sequence.
An air conditioning system comprising a heat exchanger unit having a utilization heat exchanger and configured to generate conditioned air through heat exchange in the utilization heat exchanger and supply an air conditioning target space with the conditioned air through a plurality of distribution flow paths communicating with the heat exchanger unit, each of the distribution flow paths including a duct (20, 20a to 20d) connected to the heat exchanger unit and provided for distribution of the conditioned air, and a fan unit (30, 30a to 30d) provided correspondingly to the duct and configured to supply the air conditioning target space with the conditioned air from the heat exchanger unit through the ducts, wherein each of the distribution flow paths further including an actuator configured to individually change supply air volume of the conditioned air supplied to the air conditioning target space, and wherein the air conditioning system further comprising a main controller configured to control the actuators such that airflow volume through the utilization heat exchanger satisfies a predetermined condition, characterized in that at least either the ducts or the fan units each include an airflow volume sensing unit , the main controller is configured to total airflow volume through the distribution flow paths detected by the airflow volume sensing units and control the actuators such that a total satisfies the predetermined condition, the actuators are fan motors of the fan units, and the main controller controls numbers of revolutions of the fan motors in accordance with values of the airflow volume sensing units. each of the distribution flow paths including a duct (20, 20a to 20d) connected to the heat exchanger unit and provided for distribution of the conditioned air, and a fan unit (30, 30a to 30d) provided correspondingly to the duct and configured to supply the air conditioning target space with the conditioned air from the heat exchanger unit through the ducts, wherein each of the distribution flow paths further including an actuator configured to individually change supply air volume of the conditioned air supplied to the air conditioning target space, and wherein the air conditioning system further comprising a main controller configured to control the actuators such that airflow volume through the utilization heat exchanger satisfies a predetermined condition, characterized in that at least either the ducts or the fan units each include an airflow volume sensing unit , the main controller is configured to total airflow volume through the distribution flow paths detected by the airflow volume sensing units and control the actuators such that a total satisfies the predetermined condition, the actuators are fan motors of the fan units, and the main controller controls numbers of revolutions of the fan motors in accordance with values of the airflow volume sensing units.
A method comprising: sending from a user equipment a radio resource control query request message to a network entity of a neutral host network; receiving at the user equipment a query response message including a list of service providers in response to the radio resource control query request message; wherein signaling radio bearer resources of signaling radio bearer 0 are used for the query request message and the query response message; selecting at the user equipment a service provider based on the query response message; and sending from the user equipment to the neutral host network a radio resource control request including a cell radio network temporary identity and indicating a user equipment identification for the selected service provider in a non-access stratum service request information element. sending from a user equipment a radio resource control query request message to a network entity of a neutral host network; receiving at the user equipment a query response message including a list of service providers in response to the radio resource control query request message; wherein signaling radio bearer resources of signaling radio bearer 0 are used for the query request message and the query response message; selecting at the user equipment a service provider based on the query response message; and sending from the user equipment to the neutral host network a radio resource control request including a cell radio network temporary identity and indicating a user equipment identification for the selected service provider in a non-access stratum service request information element.
A device for refining, in particular continuously, an inorganic non-metallic melt, preferably a glass melt, comprising: - a refining crucible having an upper side and a lower side , which crucible is defined at least by lateral walls that have a metallic lining as a melt contact surface on an inner surface thereof, wherein the lateral walls include at least a first layer preferably adjoining the lining , and a second layer , wherein the first layer exhibits higher temperature stability than the second layer , and wherein the second layer exhibits lower thermal conductivity than the first layer , and wherein the lining entirely provides the melt contact surface of the crucible; - at least one heating means for conductively heating the lining by an electric current flow through the lining , so that the melt is heatable by the heated lining , wherein the heating means and the lining are connected to one another via supply lines; wherein - the supply lines make contact with the lining via at least one upper connection and at least one lower connection such that an electric current flow can be generated at least in the lining of the lateral wall , at least in sections thereof, from the upper side to the lower side or from the lower side to the upper side , - a refining crucible having an upper side and a lower side , which crucible is defined at least by lateral walls that have a metallic lining as a melt contact surface on an inner surface thereof, wherein the lateral walls include at least a first layer preferably adjoining the lining , and a second layer , wherein the first layer exhibits higher temperature stability than the second layer , and wherein the second layer exhibits lower thermal conductivity than the first layer , and wherein the lining entirely provides the melt contact surface of the crucible; - at least one heating means for conductively heating the lining by an electric current flow through the lining , so that the melt is heatable by the heated lining , wherein the heating means and the lining are connected to one another via supply lines; wherein - the supply lines make contact with the lining via at least one upper connection and at least one lower connection such that an electric current flow can be generated at least in the lining of the lateral wall , at least in sections thereof, from the upper side to the lower side or from the lower side to the upper side ,
Converter for symmetrical reactive power compensation having a first, a second and a third phase path , wherein each of the three phase paths is connectable to an associated phase of a three-phase AC power supply and the three phase paths are connected to one another in an isolated star point circuit, wherein the first phase path is submodule free and the second and third phase paths each comprise a phase module having a series circuit comprising two-pole submodules , wherein each submodule has an energy store and also at least one power semiconductor and is actuatable such that the poles of the submodule have at least one positive submodule voltage, at least one negative submodule voltage or a voltage having the value zero dropped across them, wherein the converter further comprises a feedback control device for regulating phase module currents, wherein the feedback control device can be used to determine voltages (Uconv2, Uconv3) that need to be set on each phase module , characterized in that the feedback control device comprises a decoupling unit that is set up to compute correction voltages for each phase module on the basis of - a first supply voltage (U21) between the first and second phase paths, - a second supply voltage (U32) between the second and third phase paths and also - a first and/or a second control voltage (Ustell2, Ustell3), each derived from nominal currents and the phase module currents of the second and third phase paths, respectively, so that the voltages (Uconv2, Uconv3) that are to be set are derivable from the control voltages (Ustell2, Ustell3) and the correction voltages. - a first supply voltage (U21) between the first and second phase paths, - a second supply voltage (U32) between the second and third phase paths and also - a first and/or a second control voltage (Ustell2, Ustell3), each derived from nominal currents and the phase module currents of the second and third phase paths, respectively,
A connector for attaching a radio frequency identification (RFID) reader to a fuel dispensing nozzle , the connector comprising: a bracket configured to be affixed to and to surround the fuel dispensing nozzle , at least a portion of the bracket configured to rotate relative to the nozzle while another portion of the bracket remains fixed relative to the nozzle ; and a housing affixed to the bracket and configured to receive an RFID reader; wherein the housing is repositionable by rotating the at least a portion of the bracket relative to the fuel dispensing nozzle , wherein the bracket comprises; a collar assembly configured to surround and engage the fuel dispensing nozzle ; and a rotating bracket assembly engaged with the collar assembly and configured to rotate relative to the collar assembly . a bracket configured to be affixed to and to surround the fuel dispensing nozzle , at least a portion of the bracket configured to rotate relative to the nozzle while another portion of the bracket remains fixed relative to the nozzle ; and a housing affixed to the bracket and configured to receive an RFID reader; wherein the housing is repositionable by rotating the at least a portion of the bracket relative to the fuel dispensing nozzle , a collar assembly configured to surround and engage the fuel dispensing nozzle ; and a rotating bracket assembly engaged with the collar assembly and configured to rotate relative to the collar assembly .
A method of producing an aluminum alloy product, comprising: continuously casting an aluminum alloy to form a slab, wherein the aluminum alloy comprises 0.03 - 1.2 wt. % Si, 0.06 - 1.5 wt. % Fe, 0.04 - 6.0 wt. % Cu, 0.005 - 0.9 wt. % Mn, 0.7 - 8.7 wt. % Mg, 0 - 0.3 wt. % Cr, 1.7 - 18.3 wt. % Zn, 0.005 - 0.6 wt. % Ti, 0 - 0.4 wt. % Zr, and up to 0.15 wt. % of impurities, with the remainder Al; cooling the slab upon exit from a continuous caster that continuously casts the slab, wherein the cooling step comprises quenching the slab with water at a quench rate of from 10°C/s up to 200°C/s; heating the slab to a temperature of from 300°C to 500°C at a heating rate of 150°C/hour or less; and hot rolling the slab to a final gauge without cold rolling the slab prior to the final gauge.
A corner module apparatus for a vehicle, the corner module apparatus comprising: one or more processors configured to obtain a steering angle , and obtain a lever ratio indicating whether a front wheel and a rear wheel of a bicycle model defined with respect to a vehicle are inphase or reverse-phased and indicating a steering angle ratio; and a controller configured to calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio. one or more processors configured to obtain a steering angle , and obtain a lever ratio indicating whether a front wheel and a rear wheel of a bicycle model defined with respect to a vehicle are inphase or reverse-phased and indicating a steering angle ratio; and a controller configured to calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio. calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio.
A compound represented by formula (I), or a pharmaceutically acceptable salt thereof: wherein R 1 and R 2 are, the same or different, a hydrogen atom or C1-C3 alkyl; A 1 and A 2 are, the same or different, linear or branched C8-C20 alkylene or C8-C20 alkenylene; M 1 and M 2 are, the same or different, selected from the group consisting of -C=C-, -OC(O)-, -C(O)O-, -SC(O)-, -C(O)S-, -OC(S)-, -C(S)O-, -SS-, -C(R 5 )=N-, -N=C(R 5 )-,-C(R 5 )=N-O-, -O-N=C(R 5 )-, -N(R 5 )C(O)-, -C(O)N(R 5 )-,-N(R 5 )C(S)-, -C(S)N(R 5 )-, -N(R 5 )C(O)N(R 6 )-, -N(R 5 )C(O)O-,-OC(O)N(R 5 )-, and -OC(O)O-; R 5 and R 6 are, the same or different, a hydrogen atom or C1-C3 alkyl; and B 1 and B 2 are, the same or different, linear or branched C1-C16 alkyl or C2-C16 alkenyl. A 1 and A 2 are, the same or different, linear or branched C8-C20 alkylene or C8-C20 alkenylene; M 1 and M 2 are, the same or different, selected from the group consisting of -C=C-, -OC(O)-, -C(O)O-, -SC(O)-, -C(O)S-, -OC(S)-, -C(S)O-, -SS-, -C(R 5 )=N-, -N=C(R 5 )-,-C(R 5 )=N-O-, -O-N=C(R 5 )-, -N(R 5 )C(O)-, -C(O)N(R 5 )-,-N(R 5 )C(S)-, -C(S)N(R 5 )-, -N(R 5 )C(O)N(R 6 )-, -N(R 5 )C(O)O-,-OC(O)N(R 5 )-, and -OC(O)O-; R 5 and R 6 are, the same or different, a hydrogen atom or C1-C3 alkyl; and B 1 and B 2 are, the same or different, linear or branched C1-C16 alkyl or C2-C16 alkenyl.
Pressing method for a press having a lower die and a press ram, driven by a motor , or a sleeve , driven by a motor , wherein the press further comprises a position measurement system for the direct or indirect measuring of the position of the press ram or of the sleeve , and a force measurement system for measuring the force exerted by the press and wherein the position measurement system and the force measurement system are in signal communication with control electronics for controlling the press , having the steps - insertion of the components intended for pressing into the lower die , - pressing the components intended for pressing, and - removing the pressed components, during which - while the pressing is being carried out, data points are recorded for a force path diagram for each inserted component by means of the position measurement system and the force measurement system, - still while the pressing of the components, for which the data points are recorded, is being carried out, an evaluation of the data points is carried out in order to determine at least one correction value for the pressing path, and - still while the pressing of the components, for which the data points are recorded, is being carried out, a correction of the pressing path for the respective component is carried out using at least one of the correction values obtained in this manner, wherein the components intended for pressing include at least a first and a second component, characterized in that the pressing method is a method for the free positioning of the first component at a specified position of the second component, and in that the evaluation of the data points for the force path diagram comprises an at least approximate determination of the position at which the breakaway force (L) was reached. - insertion of the components intended for pressing into the lower die , - pressing the components intended for pressing, and - removing the pressed components, - while the pressing is being carried out, data points are recorded for a force path diagram for each inserted component by means of the position measurement system and the force measurement system, - still while the pressing of the components, for which the data points are recorded, is being carried out, an evaluation of the data points is carried out in order to determine at least one correction value for the pressing path, and - still while the pressing of the components, for which the data points are recorded, is being carried out, a correction of the pressing path for the respective component is carried out using at least one of the correction values obtained in this manner, wherein the components intended for pressing include at least a first and a second component, characterized in that
A system, comprising: a first server , comprising: a stored-program processing circuit , a first network interface circuit , and a first memory module , wherein: the first memory module comprises: a first memory die, and a controller , the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit , the system further comprising: a second server , and a network switch connected to the first server and to the second server ; wherein the controller of the first memory module is configured to: receive data, from the second server ; store the data in the first memory module ; and send, to the stored-program processing circuit , a command for invalidating a cache line. a first server , comprising: a stored-program processing circuit , a first network interface circuit , and a first memory module , a stored-program processing circuit , a first network interface circuit , and a first memory module , wherein: the first memory module comprises: a first memory die, and a controller , the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit , the system further comprising: a second server , and a network switch connected to the first server and to the second server ; wherein the controller of the first memory module is configured to: receive data, from the second server ; store the data in the first memory module ; and send, to the stored-program processing circuit , a command for invalidating a cache line. the first memory module comprises: a first memory die, and a controller , a first memory die, and a controller , the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit , to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit , the system further comprising: a second server , and a network switch connected to the first server and to the second server ; wherein the controller of the first memory module is configured to: receive data, from the second server ; store the data in the first memory module ; and send, to the stored-program processing circuit , a command for invalidating a cache line. a second server , and a network switch connected to the first server and to the second server ; wherein the controller of the first memory module is configured to: receive data, from the second server ; store the data in the first memory module ; and send, to the stored-program processing circuit , a command for invalidating a cache line. receive data, from the second server ; store the data in the first memory module ; and send, to the stored-program processing circuit , a command for invalidating a cache line.