mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling and/or protecting an actuator of a movable equipment of a building, the actuator comprising a motor (M) of the type comprising a rotor and a stator, the method comprising the steps consisting of: - (E1) disposing an instantaneous signal (SI) representative of the electrical power supply, supplied to the motor (M), the instantaneous signal (SI) presenting a plurality of pulses (imp), - (E2) performing a sampling of values (ECH) of the instantaneous signal (SI), the sampling being synchronized with at least one portion of the pulses (imp) of the plurality of pulses (imp) of the instantaneous signal (SI), - (E3) performing a control of each sampled value (ECH) according to a first protection criterion (CRa) of the actuator , and transmitting a first anomaly information (lAa) for each sampled value (ECH), not complying with the first protection criterion (CRa), - (E3') acquiring a set of values (ECHa) among the sampled values (ECH), - (E4') performing a control according to a second protection criterion (CRb) of the actuator applied to the set of acquired sampled values (ECHa), and transmitting a second anomaly information (lAb) for the set of acquired sampled values (ECHa) not complying with the second protection criterion (CRb). - (E1) disposing an instantaneous signal (SI) representative of the electrical power supply, supplied to the motor (M), the instantaneous signal (SI) presenting a plurality of pulses (imp), - (E2) performing a sampling of values (ECH) of the instantaneous signal (SI), the sampling being synchronized with at least one portion of the pulses (imp) of the plurality of pulses (imp) of the instantaneous signal (SI), - (E3) performing a control of each sampled value (ECH) according to a first protection criterion (CRa) of the actuator , and transmitting a first anomaly information (lAa) for each sampled value (ECH), not complying with the first protection criterion (CRa), - (E3') acquiring a set of values (ECHa) among the sampled values (ECH), - (E4') performing a control according to a second protection criterion (CRb) of the actuator applied to the set of acquired sampled values (ECHa), and transmitting a second anomaly information (lAb) for the set of acquired sampled values (ECHa) not complying with the second protection criterion (CRb).
A control device for a fuel pump including a cylinder , a plunger provided to be slidable inside the cylinder of the fuel pump , and an electric actuator configured to move the plunger , the fuel pump being an electric fuel pump configured to supply fuel to a fuel pipe to which a fuel injection valve is coupled, the fuel injection valve being disposed so as to inject fuel into a cylinder of an internal combustion engine , and the fuel pump being configured to perform suction of fuel and discharge of fuel as the plunger reciprocates by an energization control to the electric actuator , the control device comprising an electronic control unit (100; 400) configured to: execute an inter-injection discharge control of executing fuel discharge from the fuel pump at a predetermined timing between an Nth fuel injection and an (N+1)th fuel injection from the fuel injection valve ; and change a discharge ratio in accordance with an operational state of the internal combustion engine during the execution of the inter-injection discharge control, the discharge ratio being a ratio of the number of times of fuel discharge from the fuel pump to the fuel pipe to the number of times of fuel injection from the fuel injection valve , characterized in that the electronic control unit (100; 400) is configured to execute fuel discharge from the fuel pump after a predetermined preparation time has elapsed after an end of the Nth fuel injection and before a start of the (N+1)th fuel injection, in the inter-injection discharge control. execute an inter-injection discharge control of executing fuel discharge from the fuel pump at a predetermined timing between an Nth fuel injection and an (N+1)th fuel injection from the fuel injection valve ; and change a discharge ratio in accordance with an operational state of the internal combustion engine during the execution of the inter-injection discharge control, the discharge ratio being a ratio of the number of times of fuel discharge from the fuel pump to the fuel pipe to the number of times of fuel injection from the fuel injection valve ,
A treatment apparatus for the surgical correction of defective vision in an eye of a patient , which has a laser device (L) that separates corneal tissue by irradiating pulsed, focused laser radiation , a contact glass for placing on and fixing the eye , which gives the corneal front surface a known spherical shape, and a planning device (P), wherein the planning device (P) - comprises an interface (S) for receiving measurement data about parameters of the eye and defective vision data about the defective vision of the eye to be corrected, - defines a volume from the received measurement and defective vision data, which volume is situated within the cornea and the removal of which from the cornea effects the desired defective vision correction, - defines a boundary surface which confines the defined volume within the cornea , and - for this boundary surface generates a control data set for controlling the laser device (L), which defines in the cornea a three-dimensional pattern of target points which lie in the boundary surface and are arranged in such a way that, after irradiating the pulsed laser radiation in accordance with the control data set, the boundary surface is formed as a cut surface which isolates the defined volume in the cornea and thus makes it removable, characterized in that - the planning device (P) composes the boundary surface from an anterior surface part and a posterior surface part , the anterior surface part being a paraboloid that approximates a sphere that lies at a constant distance from the corneal front surface , and the posterior partial surface does not have a constant distance from the corneal front surface . - comprises an interface (S) for receiving measurement data about parameters of the eye and defective vision data about the defective vision of the eye to be corrected, - defines a volume from the received measurement and defective vision data, which volume is situated within the cornea and the removal of which from the cornea effects the desired defective vision correction, - defines a boundary surface which confines the defined volume within the cornea , and - for this boundary surface generates a control data set for controlling the laser device (L), which defines in the cornea a three-dimensional pattern of target points which lie in the boundary surface and are arranged in such a way that, after irradiating the pulsed laser radiation in accordance with the control data set, the boundary surface is formed as a cut surface which isolates the defined volume in the cornea and thus makes it removable, characterized in that - the planning device (P) composes the boundary surface from an anterior surface part and a posterior surface part , the anterior surface part being a paraboloid that approximates a sphere that lies at a constant distance from the corneal front surface , and the posterior partial surface does not have a constant distance from the corneal front surface .
A method for operating a lamp unit for generating ultraviolet radiation, the lamp unit including a gas discharge lamp having a discharge chamber accessible for a mercury charge, an electronic ballast, and a temperature control element adjustable by a control unit for controlling a temperature of the gas discharge lamp, wherein the gas discharge lamp is operated with a lamp current and a lamp voltage, and wherein during an operating phase an essentially constant lamp current is applied to the gas discharge lamp, wherein the temperature control element is a cooling element for cooling the gas discharge lamp, and wherein the method comprises the following method steps: (a) determining an actual value of the lamp voltage by a voltage sensor, (b) transmitting the actual value of the lamp voltage to the control unit, (c) comparing the actual value with a desired value of the lamp voltage by the control unit, (d) outputting a control signal by the control unit to the cooling element for setting a cooling power, characterized in that in that the gas discharge lamp is a low-pressure amalgam lamp and, which is continuously cooled by the cooling element during operation of the lamp unit. (a) determining an actual value of the lamp voltage by a voltage sensor, (b) transmitting the actual value of the lamp voltage to the control unit, (c) comparing the actual value with a desired value of the lamp voltage by the control unit, (d) outputting a control signal by the control unit to the cooling element for setting a cooling power, characterized in that in that the gas discharge lamp is a low-pressure amalgam lamp and, which is continuously cooled by the cooling element during operation of the lamp unit.
A pressure cell system configured to perform microwave measurements of solid samples under confining pressure, the pressure cell system comprising: a pressure cell configured to house a solid sample within inner walls of the pressure cell, wherein the pressure cell includes a top that is configured to open and to close and to provide a pressure resistant lid on the pressure cell; an injection system configured to inject an injectable medium into the pressure cell in a gap between the solid sample and the inner walls; a heating element configured to provide heat to the injectable medium in the pressure cell; a pressure gauge configured to measure pressure inside the pressure cell; a pressure relief valve to release excess pressure above a specific threshold; a temperature gauge configured to measure temperature in the pressure cell; a coaxial resonator system configured to capture microwave permittivity measurements of the solid sample at different combinations of temperatures and pressures, the microwave measurements captured after the solid sample is placed inside of the pressure cell, a top of the pressure cell is closed, and after the injectable medium is injected into the pressure cell in the gap between the solid sample and the inner walls; and controls configured to allow setting, by a user, of different desired pressures and desired temperatures, wherein the injection system and the heating element are further configured to attain and maintain the different desired pressures and desired temperatures. a pressure cell configured to house a solid sample within inner walls of the pressure cell, wherein the pressure cell includes a top that is configured to open and to close and to provide a pressure resistant lid on the pressure cell; an injection system configured to inject an injectable medium into the pressure cell in a gap between the solid sample and the inner walls; a heating element configured to provide heat to the injectable medium in the pressure cell; a pressure gauge configured to measure pressure inside the pressure cell; a pressure relief valve to release excess pressure above a specific threshold; a temperature gauge configured to measure temperature in the pressure cell; a coaxial resonator system configured to capture microwave permittivity measurements of the solid sample at different combinations of temperatures and pressures, the microwave measurements captured after the solid sample is placed inside of the pressure cell, a top of the pressure cell is closed, and after the injectable medium is injected into the pressure cell in the gap between the solid sample and the inner walls; and controls configured to allow setting, by a user, of different desired pressures and desired temperatures, wherein the injection system and the heating element are further configured to attain and maintain the different desired pressures and desired temperatures.
An implantable medical device (100; 200; 600) for treating a cancerous tumor of a patient, comprising: a first and a second implantable lead , both leads including one or more electric field generating electrodes (512; 604, 606, 608; 610, 612, 614; 704) and one or more impedance monitoring electrodes (508; 604, 606, 608; 610, 612, 614; 704) configured to measure the impedance of tissue within the patient along a vector passing through the cancerous tumor; wherein the medical device is configured to generate an electric field at frequencies selected from a range of between 10 kHz to 1 MHz, wherein the electric field is effective to disrupt cellular mitosis in cancerous cells, wherein the electric field generating electrodes are configured to administer the electric field to the cancerous tumor of the patient based on the measured impedance; and wherein the medical device is configured to administer the electric field to the cancerous tumor of the patient based on changes in the measured impedance such that the medical device is configured to adjust the electric field, including changing one or more of the amplitude, frequency, pulse width, wave form, directionality, and/or duty cycle, in response to a measured decrease in impedance reflecting a lack of a decrease in the size of the tumor. a first and a second implantable lead , both leads including one or more electric field generating electrodes (512; 604, 606, 608; 610, 612, 614; 704) and one or more impedance monitoring electrodes (508; 604, 606, 608; 610, 612, 614; 704) configured to measure the impedance of tissue within the patient along a vector passing through the cancerous tumor; wherein the medical device is configured to generate an electric field at frequencies selected from a range of between 10 kHz to 1 MHz, wherein the electric field is effective to disrupt cellular mitosis in cancerous cells, wherein the electric field generating electrodes are configured to administer the electric field to the cancerous tumor of the patient based on the measured impedance; and wherein the medical device is configured to administer the electric field to the cancerous tumor of the patient based on changes in the measured impedance such that the medical device is configured to adjust the electric field, including changing one or more of the amplitude, frequency, pulse width, wave form, directionality, and/or duty cycle, in response to a measured decrease in impedance reflecting a lack of a decrease in the size of the tumor.
A hairdryer comprising: - a body having a blowing outlet through which air is emitted; - hot air generating means arranged in the body and arranged to generate a flow of hot air to be emitted through the blowing outlet ; - a control unit arranged in the body ; - a temperature sensor for sensing the temperature of the surface of the hair being dried or of the air been blown through the outlet , which sensor is supported by the body and it is connected to the control unit for sending to it temperature information signals; characterized in that it further comprises vibration means arranged in the body and arranged to be activated by the control unit when the temperature sensed by the sensor reaches a first threshold value set by the producer and the control unit receives a correspondent temperature information signal from the sensor , for warning the user holding the body of the hairdryer that the first temperature threshold has been reached. - a body having a blowing outlet through which air is emitted; - hot air generating means arranged in the body and arranged to generate a flow of hot air to be emitted through the blowing outlet ; - a control unit arranged in the body ; - a temperature sensor for sensing the temperature of the surface of the hair being dried or of the air been blown through the outlet , which sensor is supported by the body and it is connected to the control unit for sending to it temperature information signals; characterized in that it further comprises vibration means arranged in the body and arranged to be activated by the control unit when the temperature sensed by the sensor reaches a first threshold value set by the producer and the control unit receives a correspondent temperature information signal from the sensor , for warning the user holding the body of the hairdryer that the first temperature threshold has been reached.
Electronic assembly comprising power module, circuit board and heat sink, wherein the power module has a metal base plate , wherein an insulation layer is arranged on the side of the base plate facing towards the circuit board, wherein metal conductor tracks, in particular made of copper, are arranged on the side of the insulation layer facing away from the base plate, wherein semiconductors are arranged on the conductor tracks on the side of the conductor tracks facing away from the insulation layer, wherein the base plate can be connected directly or by means of a via to a connection contact that acts as an equipotential bond to the circuit board, wherein the connection contact that acts as an equipotential bond is at ground potential, in particular wherein the base plate is made of copper, wherein the power module has an interference suppression unit which short-circuits capacitive interference currents, characterized in that the interference suppression unit has three capacitors, wherein a first of the three capacitors is electrically connected by its first pole to the connection contact that acts as an equipotential bond, and is designed as a Y capacitor , wherein the other two capacitors are designed as X capacitors and are connected in series and are supplied from a DC voltage source, wherein the Y capacitor is electrically connected by its other pole to a centre tap of the series connection of the two X capacitors, wherein the DC voltage source is the DC link voltage of a converter, wherein the first pole of the Y capacitor is connected to a conductor track of the power module, which conductor track is connected to the base plate by means of a bond wire.
A heating medium channel switching device, comprising: - a cylindrical valve body wherein an interior is partitioned into two channels (22a and 22b) by a partition plate disposed in a longitudinal direction and two aperture portions that form a heating medium outlet and inlet are provided in a side surface corresponding to each of the channels (22a and 22b); and - a body having a valve chamber that houses the valve body , a plurality of inlets (32, 33, and 34) that communicate with the aperture portions and allow a heating medium to flow into the valve body , and a plurality of outlets (35, 36, and 37) that communicate with the aperture portions and allow a heating medium to flow out from the valve body , characterized in that the body has as the inlets (32, 33, and 34) a first inlet into which a first heating medium flows, a second inlet into which a second heating medium flows, and a common inlet into which either one of a third heating medium or fourth heating medium flows, and has as the outlets (35, 36, and 37) a common outlet out of which either one of the first heating medium or the second heating medium flows, a third outlet out of which the third heating medium flows, and a fourth outlet out of which the fourth heating medium flows, and wherein the valve body is such that one of the aperture portions (24a or 24c) of one of the channels (22a or 22b) communicates with either one of the first inlet or the second inlet while the other aperture portion (24b or 24d) of the channel (22a or 22b) communicates with the common outlet , and one of the aperture portions (24d or 24b) of the other channel (22b or 22a) communicates with the common inlet while the other aperture portion (24c or 24a) of the channel (22b or 22a) communicates with either one of the third outlet or the fourth outlet . - a cylindrical valve body wherein an interior is partitioned into two channels (22a and 22b) by a partition plate disposed in a longitudinal direction and two aperture portions that form a heating medium outlet and inlet are provided in a side surface corresponding to each of the channels (22a and 22b); and - a body having a valve chamber that houses the valve body , a plurality of inlets (32, 33, and 34) that communicate with the aperture portions and allow a heating medium to flow into the valve body , and a plurality of outlets (35, 36, and 37) that communicate with the aperture portions and allow a heating medium to flow out from the valve body ,
Method of operating a first network node of a mobile network , the mobile network providing a user plane for transporting transmission packets , which contain user data, and at least one additional further network layer plane different from the user plane , the method comprising: sending to a second network node a register accept message via a network layer protocol of said further network layer plane in response to a register request for connecting the second network node to the network , characterized in that the register accept message comprises an information element indicating an optimizing capability of said first network node of processing an optimized transmission packet . sending to a second network node a register accept message via a network layer protocol of said further network layer plane in response to a register request for connecting the second network node to the network , characterized in that the register accept message comprises an information element indicating an optimizing capability of said first network node of processing an optimized transmission packet .
Wind turbine having a rotor and a generator arranged close to the ground, wherein a compressor is mechanically coupled to the rotor and a compressed gas engine is mechanically coupled to the generator , wherein a gas outlet of the compressor and a gas inlet of the compressed gas engine are connected to each other via a compressed gas line , wherein the wind turbine further comprises a return pressure gas line via which a gas inlet of the compressor is connected to a gas outlet of the pressurized gas engine , and wherein the wind turbine is arranged such that in operation the working gas has a pressure of at least 5 bar in the return pressure gas line , characterized in that the wind turbine is further arranged to control a transmitted power at a predetermined value for a compression ratio of the working gas in the compressor via a value for an inlet pressure of the working gas upon entering the compressor . the wind turbine further comprises a return pressure gas line via which a gas inlet of the compressor is connected to a gas outlet of the pressurized gas engine , and wherein the wind turbine is arranged such that in operation the working gas has a pressure of at least 5 bar in the return pressure gas line , characterized in that the wind turbine is further arranged to control a transmitted power at a predetermined value for a compression ratio of the working gas in the compressor via a value for an inlet pressure of the working gas upon entering the compressor .
Bi-injection molded housing of a locking cap for a pharmaceutical vial, composed of: - a first material forming an upper ring , legs of which the upper ends are rigidly connected to the upper ring , and bridges connecting the lower ends of the legs in pairs, at least some bridges comprising a flexible tab intended to engage under a flange of the vial , and - a second material, elastomer, forming a stopper which is configured to seal the vial when the flexible tabs engage under the flange , at least one inner face of the upper ring , made of the first material, being rigidly connected to the stopper , made of the second material. - a first material forming an upper ring , legs of which the upper ends are rigidly connected to the upper ring , and bridges connecting the lower ends of the legs in pairs, at least some bridges comprising a flexible tab intended to engage under a flange of the vial , and - a second material, elastomer, forming a stopper which is configured to seal the vial when the flexible tabs engage under the flange ,