mhurhangee/patent-ind-claim-en huggingface dataset:
A pressing device comprising an electric motor with an output shaft , a gear driven by the output shaft , a spindle driven by the gear and defining a center axis (M), a press piston driven by the spindle , and a tool holder for receiving a pressing tool, wherein the gear has a first gear part acting on the spindle , wherein the first gear part comprises a first drive wheel and spindle wheel , wherein the spindle is mounted rotationally fixed and longitudinally displaceable in the spindle wheel , which spindle wheel is rotatable with respect to a rotation about the center axis (M) and fixed with respect to a movement along the center axis (M), characterized in that gear has a second gear part acting on the spindle , wherein the second gear part comprises a second drive wheel and a spindle nut driven with the second drive wheel , which spindle nut is rotatable with respect to a rotation about the center axis (M) and fixed with respect to a movement along the center axis (M), and wherein upon rotation of the two drive wheels the spindle wheel and the spindle nut are set in rotational movement in such a way that the spindle experiences an axial advance with respect to the spindle wheel and with respect to the spindle nut , wherein upon this axial advance of the spindle the press piston experiences an advance movement in the direction of the tool holder . an electric motor with an output shaft , a gear driven by the output shaft , a spindle driven by the gear and defining a center axis (M), a press piston driven by the spindle , and a tool holder for receiving a pressing tool, wherein the gear has a first gear part acting on the spindle , wherein the first gear part comprises a first drive wheel and spindle wheel , wherein the spindle is mounted rotationally fixed and longitudinally displaceable in the spindle wheel , which spindle wheel is rotatable with respect to a rotation about the center axis (M) and fixed with respect to a movement along the center axis (M), characterized in that gear has a second gear part acting on the spindle , wherein the second gear part comprises a second drive wheel and a spindle nut driven with the second drive wheel , which spindle nut is rotatable with respect to a rotation about the center axis (M) and fixed with respect to a movement along the center axis (M), and wherein upon rotation of the two drive wheels the spindle wheel and the spindle nut are set in rotational movement in such a way that the spindle experiences an axial advance with respect to the spindle wheel and with respect to the spindle nut , wherein upon this axial advance of the spindle the press piston experiences an advance movement in the direction of the tool holder .
Piston for an internal combustion engine having two shaft walls which are connected by connecting walls supporting piston pin hubs, wherein at least one shaft wall has a greater wall thickness in a central region along the piston circumference and in the lateral regions than between the central region and the respective lateral region, and is of constant curvature on the inner side of the piston in a section perpendicular to the piston axis, and wherein the wall thickness distribution is substantially constant in the direction of the piston axis.
Measurement system having: - a scintillator , which is configured to convert ionizing radiation that is incident on the scintillator into a temporal succession of photons, - a photodetector , which is optically coupled to the scintillator and is configured to convert individual photons that are incident on the photodetector into associated individual electrical pulses (P), and - an evaluation unit , characterized in that - the evaluation unit is configured to evaluate a temporal distance (ZA1 to ZAn) between consecutive electrical pulses (P) for determining a measurement variable, - the evaluation unit is configured to ascertain the respective temporal distances (ZA1 to ZAn) between consecutive electrical pulses (P) for pulses (P) which lie within a specifiable time interval (ZT) and to determine the measurement variable based on the ascertained profile of the temporal distances (ZA1 to ZAn), and - the evaluation unit is configured to compare the profile of the ascertained temporal distances (ZA1 to ZAn) with a stored reference profile of temporal distances, wherein the stored reference profile is characteristic of a type of ionizing radiation that is incident on the scintillator . - a scintillator , which is configured to convert ionizing radiation that is incident on the scintillator into a temporal succession of photons, - a photodetector , which is optically coupled to the scintillator and is configured to convert individual photons that are incident on the photodetector into associated individual electrical pulses (P), and - an evaluation unit , characterized in that - the evaluation unit is configured to evaluate a temporal distance (ZA1 to ZAn) between consecutive electrical pulses (P) for determining a measurement variable, - the evaluation unit is configured to ascertain the respective temporal distances (ZA1 to ZAn) between consecutive electrical pulses (P) for pulses (P) which lie within a specifiable time interval (ZT) and to determine the measurement variable based on the ascertained profile of the temporal distances (ZA1 to ZAn), and - the evaluation unit is configured to compare the profile of the ascertained temporal distances (ZA1 to ZAn) with a stored reference profile of temporal distances, wherein the stored reference profile is characteristic of a type of ionizing radiation that is incident on the scintillator .
A device for monitoring overvoltage protection capacitors in generator circuit breakers, the device being intended to be connected to a generator circuit breaker , GCB, arranged between an electrical generation plant and a transformer , the generator circuit breaker comprising one or more phases with one phase circuit breaker per phase, wherein the device has a first capacitor and a second capacitor for each phase of the generator circuit breaker , wherein each capacitor comprises a first terminal and a second terminal, the device being characterised in that it additionally comprises: a passage detection monitoring module configured to generate an alarm signal when a current circulates through the capacitors , wherein the second terminal of the first capacitor and the second terminal of the second capacitor are connected to the monitoring module , in a double star configuration, and the first terminal of the first capacitor is intended to be connected between the generation plant and the generator circuit breaker of the phase thereof, and the first terminal of the second capacitor is intended to be connected between the generator circuit breaker of the phase thereof and the transformer . the device being intended to be connected to a generator circuit breaker , GCB, arranged between an electrical generation plant and a transformer , the generator circuit breaker comprising one or more phases with one phase circuit breaker per phase, wherein the device has a first capacitor and a second capacitor for each phase of the generator circuit breaker , wherein each capacitor comprises a first terminal and a second terminal,
Use of a composition comprising - one or more solid disrupting particles; - at least one enzyme for enzymatic lysis; - at least one chaotropic agent in a total concentration equal to or less than 1M; and preferably - at least one buffer for disrupting human and animal derived solid tissue material. - one or more solid disrupting particles; - at least one enzyme for enzymatic lysis; - at least one chaotropic agent in a total concentration equal to or less than 1M; and preferably - at least one buffer
A method for controlling the temperature of a vehicle compartment component , the method comprising the steps of: detecting (S102) the presence of an occupant in a vehicle seat; calculating (S104) a temperature difference between an outside temperature of the vehicle surroundings and a temperature threshold, receiving a location indication from a navigation system , wherein when the temperature difference exceeds a threshold, and in response to detecting the presence of the occupant, controlling (S106) a temperature adjustment device to adjust the temperature of the vehicle compartment component with a first power profile causing an increase in applied power level, characterized in that : after a predetermined time duration of applying the first power profile , controlling (S108) the temperature adjustment device to adjust the temperature of the vehicle compartment component with a second power profile which is different from the first power profile , wherein the first power profile is an overall increase in applied power and the second power profile is an overall decrease in applied power level that is less than the increase in power level caused by the first power profile wherein at least one of the first power profile and the second power profile are selected or adapted based on the location indication. detecting (S102) the presence of an occupant in a vehicle seat; calculating (S104) a temperature difference between an outside temperature of the vehicle surroundings and a temperature threshold, receiving a location indication from a navigation system , wherein when the temperature difference exceeds a threshold, and in response to detecting the presence of the occupant, controlling (S106) a temperature adjustment device to adjust the temperature of the vehicle compartment component with a first power profile causing an increase in applied power level, characterized in that : after a predetermined time duration of applying the first power profile , controlling (S108) the temperature adjustment device to adjust the temperature of the vehicle compartment component with a second power profile which is different from the first power profile , wherein the first power profile is an overall increase in applied power and the second power profile is an overall decrease in applied power level that is less than the increase in power level caused by the first power profile wherein at least one of the first power profile and the second power profile are selected or adapted based on the location indication.
An electronic device comprising: - a memory circuitry ; - an interface circuitry ; - a sensor circuitry and - a processor circuitry comprising a predictor circuitry configured to operate according to a prediction model; - the processor circuitry being configured to: - obtain sensor data, the sensor data comprising one or more of: data sensed by the sensor circuitry, and network quality data; - determine, based on the sensor data and the prediction model, using the predictor circuitry , a predicted time parameter indicative of a prediction of a time slot to initiate an establishment of a network with one or more other electronic devices; and - initiate the establishment of the network with the one or more other electronic devices according to the predicted time parameter. - a memory circuitry ; - an interface circuitry ; - a sensor circuitry and - a processor circuitry comprising a predictor circuitry configured to operate according to a prediction model; - the processor circuitry being configured to: - obtain sensor data, the sensor data comprising one or more of: data sensed by the sensor circuitry, and network quality data; - determine, based on the sensor data and the prediction model, using the predictor circuitry , a predicted time parameter indicative of a prediction of a time slot to initiate an establishment of a network with one or more other electronic devices; and - initiate the establishment of the network with the one or more other electronic devices according to the predicted time parameter. - obtain sensor data, the sensor data comprising one or more of: data sensed by the sensor circuitry, and network quality data; - determine, based on the sensor data and the prediction model, using the predictor circuitry , a predicted time parameter indicative of a prediction of a time slot to initiate an establishment of a network with one or more other electronic devices; and - initiate the establishment of the network with the one or more other electronic devices according to the predicted time parameter.
A method of monitoring a region (R) in which a carrier is located, the method comprising the steps of: · using at least one sensor of a first type to detect successive positions of a moving body following a path in said region (R); and · displaying a polar plot having a center symbolizing the current position of the carrier and having placing thereon a first moving-body symbol representing the current position of the moving body as a function of the bearing angle and of the distance of the moving body relative to the carrier ; the method being characterized in that it further comprises the steps of: · displaying an annular band around the polar plot , the band being of width (l) that represents a predetermined monitoring duration; and · placing second moving-body symbols in the annular band , the second symbols being representative of successive readings of angles along the path of said moving body , the annular band having an inner outline corresponding to a recent time and an outer outline corresponding to a past time preceding the recent time by a duration equal to the predetermined monitoring duration, and the second moving-body symbols being placed closer to the outer outline of the annular band with increasing age of the corresponding angle readings. · using at least one sensor of a first type to detect successive positions of a moving body following a path in said region (R); and · displaying a polar plot having a center symbolizing the current position of the carrier and having placing thereon a first moving-body symbol representing the current position of the moving body as a function of the bearing angle and of the distance of the moving body relative to the carrier ; · displaying an annular band around the polar plot , the band being of width (l) that represents a predetermined monitoring duration; and · placing second moving-body symbols in the annular band , the second symbols being representative of successive readings of angles along the path of said moving body , the annular band having an inner outline corresponding to a recent time and an outer outline corresponding to a past time preceding the recent time by a duration equal to the predetermined monitoring duration, and the second moving-body symbols being placed closer to the outer outline of the annular band with increasing age of the corresponding angle readings.
A slip frame former device being octagonally shaped for shaping and forming a transportable container to support a plurality of bulk goods and comprising: four long wall portions , each extending between ends and generally forming a square with each of said long wall portions being spaced adjacent said ends; and four short wall portions , each of said short wall portions extending diagonally between adjacent ones of said ends of said long wall portions to form a generally octagonally shaped slip frame former ; characterized in that each of said long wall portions are concaved inwardly for forming a generally straight wall on the transportable container . four long wall portions , each extending between ends and generally forming a square with each of said long wall portions being spaced adjacent said ends; and four short wall portions , each of said short wall portions extending diagonally between adjacent ones of said ends of said long wall portions to form a generally octagonally shaped slip frame former ;
A wheel assembly for using in landing gear of an aircraft, comprising: a wheel structure configured to receive at least a portion of a tire; and a structure defining an alignment hole usable to align a hubcap relative to the structure and defining a pocket circumferentially aligned with the alignment hole , wherein the structure includes a hubcap attachment flange characterized in that the pocket serves to divert load, thereby reducing stresses exerted on the hubcap attachment flange at locations adjacent the alignment hole . a wheel structure configured to receive at least a portion of a tire; and a structure defining an alignment hole usable to align a hubcap relative to the structure and defining a pocket circumferentially aligned with the alignment hole , wherein the structure includes a hubcap attachment flange characterized in that the pocket serves to divert load, thereby reducing stresses exerted on the hubcap attachment flange at locations adjacent the alignment hole .
A modified hydrocarbon resin characterized by being formed by introducing a carboxyl group or an acid anhydride group derived from an unsaturated carboxylic acid or an unsaturated dicarboxylic acid anhydride into a resin formed by hydrogenating a hydrocarbon resin comprising: a 1,3-pentadiene monomeric unit of 20 mass% to 70 mass%; a C 4-6 alicyclic monoolefin monomeric unit of 10 mass% to 40 mass%; a C 4-8 acyclic monoolefin monomeric unit of 5 mass% to 30 mass%; an alicyclic diolefin monomeric unit of 0 mass% to 1 mass%; and an aromatic monoolefin monomeric unit of 0 mass% to 40 mass%; wherein a degree of hydrogenation of the olefins is within a range of 0.1% to 50%. a 1,3-pentadiene monomeric unit of 20 mass% to 70 mass%; a C 4-6 alicyclic monoolefin monomeric unit of 10 mass% to 40 mass%; a C 4-8 acyclic monoolefin monomeric unit of 5 mass% to 30 mass%; an alicyclic diolefin monomeric unit of 0 mass% to 1 mass%; and an aromatic monoolefin monomeric unit of 0 mass% to 40 mass%; wherein a degree of hydrogenation of the olefins is within a range of 0.1% to 50%.
An assembly which is a laminate in which at least a part of a carbon foam formed of carbon fibers is adhered to at least one surface of an ion exchange membrane having a first surface and a second surface, wherein said carbon foam has linear portions and branching node portions connecting the linear portions, wherein at 90 % or more of any 20 locations, the linear portions of the carbon fibers have a fiber diameter that is within ± 20 % of an average fiber diameter, and wherein two or more pieces of the carbon foam are adhered to one surface of the ion exchange membrane, wherein the fiber diameter of the carbon fiber is the diameter of linear portion connecting node portions and is determined by image analysis of a scanning electron microscope (SEM) image observed at a magnification of 10,000 using a scanning electron microscope, and wherein the average fiber diameter is an average value of the fiber diameters measured as described above at any 20 locations. wherein two or more pieces of the carbon foam are adhered to one surface of the ion exchange membrane, wherein the fiber diameter of the carbon fiber is the diameter of linear portion connecting node portions and is determined by image analysis of a scanning electron microscope (SEM) image observed at a magnification of 10,000 using a scanning electron microscope, and wherein the average fiber diameter is an average value of the fiber diameters measured as described above at any 20 locations.
A system for providing a stream of hot water that includes a surfactant, the system comprising a source of water, means to cause water to flow along a water supply duct, and a venturi injector within the water supply duct, and a water heater to heat water in the supply duct; wherein the venturi injector communicates with an inlet duct to supply surfactant; and the system comprising a plurality of surfactant supply ducts arranged such that a plurality of surfactant containers may be connected to the inlet duct, each surfactant supply duct comprising a first portion that incorporates an on/off valve and a second portion that incorporates a check valve to control flow; characterised in that the system further comprises an open-topped chamber within which each surfactant container may be installed, wherein the first portion of the surfactant supply duct is mounted at the bottom of the open topped chamber, wherein the open-topped chamber includes an inlet and an outlet so that hot water may be fed into the open topped chamber.
A method of controlling sampling of flue gases in a combustion power plant comprising a boiler by means of which method it is possible to control sampling of flue gases for C14 carbon dating, in which method: - a sample of flue gases is taken from the dried flue gas of the combustion power plant, and - the proportions of renewable and fossil fuels are determined therefrom by means of dating based on isotope C14, characterized in that at least one of the sampling frequency of the flue gases and the volume flow of the flue gas samples is changed on the basis of the power produced by the combustion power plant. - a sample of flue gases is taken from the dried flue gas of the combustion power plant, and - the proportions of renewable and fossil fuels are determined therefrom by means of dating based on isotope C14,
A micro-engine configured to move a micro-structure, the micro-engine comprising a rotation structure , said rotation structure comprising a head portion , a rear portion and a deformable portion connecting the head portion and the rear portion , - wherein the deformable portion is deformable in elongation or compression along a main axis (X) extending from the head portion to the rear portion , - wherein the deformable portion comprises at least one spring element , the at least one spring element having a rear end attached to the rear portion , the at least one spring element displaying a free end , - wherein the free end of the at least one spring element comprises at least an abutment member , - wherein the rotation structure further comprises an actuator aligned with the deformable portion along the main axis (X) and configured to actuate sequentially elongation and compression phases of the deformable portion , - wherein the deformable portion further comprises a wheel-platform which displays a first and a second face , the second face being configured to cooperate with the free end of the at least one spring element , in order to transform a back and forth movement of the at least one spring element into a rotational movement of the wheel-platform . - wherein the deformable portion is deformable in elongation or compression along a main axis (X) extending from the head portion to the rear portion , - wherein the deformable portion comprises at least one spring element , the at least one spring element having a rear end attached to the rear portion , the at least one spring element displaying a free end , - wherein the free end of the at least one spring element comprises at least an abutment member , - wherein the rotation structure further comprises an actuator aligned with the deformable portion along the main axis (X) and configured to actuate sequentially elongation and compression phases of the deformable portion , - wherein the deformable portion further comprises a wheel-platform which displays a first and a second face , the second face being configured to cooperate with the free end of the at least one spring element , in order to transform a back and forth movement of the at least one spring element into a rotational movement of the wheel-platform .