mhurhangee/patent-ind-claim-en huggingface dataset:
A friction clutch for a drivetrain of a motor vehicle, having: - an input part with an outer plate carrier rotatable about an axis of rotation by at least one drive motor, wherein at least one outer plate is attached to the outer plate carrier ; - an output part with a rotor carrier and an inner plate carrier separated from the rotor carrier , wherein at least one inner plate is attached to the inner plate carrier ; - at least one spring device , with which the at least one outer plate and the at least one inner plate can be tensioned with a pressing force for closing the friction clutch ; - a spacer plate , by means of which the at least one outer plate and the at least one inner plate are spaced apart from the rotor carrier in an axial direction ; and - at least one leaf spring which is connected to the inner-plate carrier and the rotor carrier in such a way that the at least one leaf spring increases the pressing force with a reinforcing force when a torque is introduced by the drive motor, characterised in that the spacer plate forms a receiving space for the at least one leaf spring . - an input part with an outer plate carrier rotatable about an axis of rotation by at least one drive motor, wherein at least one outer plate is attached to the outer plate carrier ; - an output part with a rotor carrier and an inner plate carrier separated from the rotor carrier , wherein at least one inner plate is attached to the inner plate carrier ; - at least one spring device , with which the at least one outer plate and the at least one inner plate can be tensioned with a pressing force for closing the friction clutch ; - a spacer plate , by means of which the at least one outer plate and the at least one inner plate are spaced apart from the rotor carrier in an axial direction ; and - at least one leaf spring which is connected to the inner-plate carrier and the rotor carrier in such a way that the at least one leaf spring increases the pressing force with a reinforcing force when a torque is introduced by the drive motor,
Method for the quantification of radionuclides in liquid media comprising the following steps a) Providing a liquid media comprising at least one radionuclide in a measuring cell, wherein a gamma-ray detector is positioned in the measuring cell, b) Measuring a gamma-ray pulse-height spectrum of the liquid media with the gamma-ray detector, characterized in that the method further comprises c) Providing simulated gamma-ray pulse-height spectra templates for radionuclides and calibration factors, wherein the gamma-ray pulse-height spectra templates are corrected for matrix effects, d) Computer-implemented identification and quantification of the at least one radionuclide in the liquid media using a spectral fitting of the measured gamma-ray pulse-height spectrum by a weighted combination of the simulated gamma-ray pulse-height spectra templates for radionuclides and the calibration factors, wherein the spectral fitting corrects temperature effects and background effects, wherein the spectral fitting comprises the transformation of weight-factors from the weighted combination of the simulated gamma-ray pulse-height spectra templates for radionuclides to concentrations of the radionuclides in the liquid media with the calibration factors. a) Providing a liquid media comprising at least one radionuclide in a measuring cell, wherein a gamma-ray detector is positioned in the measuring cell, b) Measuring a gamma-ray pulse-height spectrum of the liquid media with the gamma-ray detector, characterized in that the method further comprises c) Providing simulated gamma-ray pulse-height spectra templates for radionuclides and calibration factors, wherein the gamma-ray pulse-height spectra templates are corrected for matrix effects, d) Computer-implemented identification and quantification of the at least one radionuclide in the liquid media using a spectral fitting of the measured gamma-ray pulse-height spectrum by a weighted combination of the simulated gamma-ray pulse-height spectra templates for radionuclides and the calibration factors, wherein the spectral fitting corrects temperature effects and background effects,
A method comprising in a terminal device : scanning for at least one message amongst at least one radio beam in a cell according to a search space defining a plurality of scanning configurations for performing blind detection of the at least one message in the search space, wherein the search space is defined by a number of different configurations for control channel elements of the at least one message, wherein the at least one message comprises a scheduling grant; measuring a signal quality of at least one radio beam in the cell ; adapting the search space on the basis of the measured signal quality; and performing a further scanning for the at least one message according to the adapted search space. scanning for at least one message amongst at least one radio beam in a cell according to a search space defining a plurality of scanning configurations for performing blind detection of the at least one message in the search space, wherein the search space is defined by a number of different configurations for control channel elements of the at least one message, wherein the at least one message comprises a scheduling grant; measuring a signal quality of at least one radio beam in the cell ; adapting the search space on the basis of the measured signal quality; and performing a further scanning for the at least one message according to the adapted search space.
Method for operating an amusement ride , in particular a roller coaster, with at least one vehicle , which moves along a circuit and which can accommodate at least one passenger , in which, by means of a computer program specific to the amusement ride, a virtual reality is generated which corresponds to a ride with the vehicle , is configured as a complete artificial environment and is displayed on a head-mounted display assigned to a passenger of a vehicle in dependency on the location of the vehicle on the circuit, as well as in dependency on the position and/or orientation of the head-mounted display , wherein the computer program specific to the amusement ride is executed on a mobile device of the passenger having a communication interface (10.1) and the location of the vehicle on the circuit is detected by a position detection device (2.1) having a vehicle communication interface (2.2) of the vehicle and is relayed to the mobile device via its communication interface (10.1).
A combustion chamber comprising an upstream ring structure , a downstream ring structure and a plurality of circumferentially arranged combustion chamber segments , each combustion chamber segment extending the full length of the combustion chamber , each combustion chamber segment comprising a frame structure and an inner wall , the frame structure and the inner wall being integral, an upstream end of each combustion chamber segment being secured to the upstream ring structure and a downstream end of each combustion chamber segment being mounted on the downstream ring structure , wherein the downstream edge of the frame structure at the downstream end of each combustion chamber segment having a circumferentially and axially upstream extending groove , the downstream ring structure having an annular axially upstream extending hook locating in the axially upstream extending groove of each combustion chamber segment and the downstream ring structure having a portion abutting a surface of the frame structure at the downstream end of each combustion chamber segment , and each combustion chamber segment being removably secured to the downstream ring structure , the surface at the downstream end of the frame structure of each combustion chamber segment having a plurality of circumferentially spaced radially extending holes , the downstream ring structure having a plurality of circumferentially spaced holes extending radially through the portion abutting the surface of the frame structure and each combustion chamber segment being removably secured to the downstream ring structure by a plurality of fasteners locatable in the holes in the combustion chamber segment and corresponding holes in the downstream ring structure , wherein each combustion chamber segment being removably secured to the downstream ring structure to allow differential thermal expansion and/or contraction between the combustion chamber segments and the downstream ring structure .
Device for making a beverage on the basis of interaction between a beverage basic material and a liquid, comprising: - a heating unit for heating the liquid, - a functional unit for accommodating a quantity of the beverage basic material, the functional unit being positioned at an outlet side of the heating unit for receiving hot liquid from the heating unit during operation of the device , and - a valve unit that is configured and arranged to allow liquid communication between the functional unit and the heating unit , in an open position thereof, and to block liquid communication between the functional unit and the heating unit , in a closed position thereof, the valve unit comprising a membrane being positioned at an interface of an inlet of the functional unit and an outlet of the heating unit , and a biasing member for biasing the membrane towards a position for realizing the closed position of the valve unit , characterized in that the inlet of the functional unit is configured and arranged to be open towards a central portion of the membrane , and wherein the outlet of the heating unit is configured and arranged to be open towards a ring-shaped portion of the membrane encompassing the central portion . - a heating unit for heating the liquid, - a functional unit for accommodating a quantity of the beverage basic material, the functional unit being positioned at an outlet side of the heating unit for receiving hot liquid from the heating unit during operation of the device , and - a valve unit that is configured and arranged to allow liquid communication between the functional unit and the heating unit , in an open position thereof, and to block liquid communication between the functional unit and the heating unit , in a closed position thereof, the valve unit comprising a membrane being positioned at an interface of an inlet of the functional unit and an outlet of the heating unit , and a biasing member for biasing the membrane towards a position for realizing the closed position of the valve unit , characterized in that the inlet of the functional unit is configured and arranged to be open towards a central portion of the membrane , and wherein the outlet of the heating unit is configured and arranged to be open towards a ring-shaped portion of the membrane encompassing the central portion .
A controlling device for providing formatted voice data to two or more smart appliances, comprising: an electronic storage medium having processor-readable code embodied therein and storing a plurality of device profiles, wherein each device profile comprises a formatting protocol for formatting voice commands in conformity with a protocol used by at least one of the two or more smart appliances; a first communication interface for transmitting the formatted voice commands to at least one of the two or more smart appliances; a microphone for receiving voice input; and a processor, coupled to the electronic storage medium, the communication interface, and the microphone for executing the processor-readable code that causes the controlling device to perform steps comprising: receiving, by the processor, via the microphone, a first voice command; determining, by the processor, a first smart appliance to which the first voice command is intended; identifying, by the processor, a first formatting protocol in the electronic storage medium associated with the first smart appliance; formatting, by the processor, the voice command into a formatted voice command in conformance with the first formatting protocol; and transmitting, by the processor, via the communication interface the formatted voice command to the first smart appliance. an electronic storage medium having processor-readable code embodied therein and storing a plurality of device profiles, wherein each device profile comprises a formatting protocol for formatting voice commands in conformity with a protocol used by at least one of the two or more smart appliances; a first communication interface for transmitting the formatted voice commands to at least one of the two or more smart appliances; a microphone for receiving voice input; and a processor, coupled to the electronic storage medium, the communication interface, and the microphone for executing the processor-readable code that causes the controlling device to perform steps comprising: receiving, by the processor, via the microphone, a first voice command; determining, by the processor, a first smart appliance to which the first voice command is intended; identifying, by the processor, a first formatting protocol in the electronic storage medium associated with the first smart appliance; formatting, by the processor, the voice command into a formatted voice command in conformance with the first formatting protocol; and transmitting, by the processor, via the communication interface the formatted voice command to the first smart appliance. receiving, by the processor, via the microphone, a first voice command; determining, by the processor, a first smart appliance to which the first voice command is intended; identifying, by the processor, a first formatting protocol in the electronic storage medium associated with the first smart appliance; formatting, by the processor, the voice command into a formatted voice command in conformance with the first formatting protocol; and transmitting, by the processor, via the communication interface the formatted voice command to the first smart appliance.
Method for evaluating an optical appearance in the surroundings of a vehicle, having the steps of providing a captured image of the surroundings of the vehicle; extracting features from the captured image ; carrying out a first analysis of the captured image , wherein the first analysis is performed as a semantic segmentation, wherein one or more objects of an object class are detected as areas on the captured image , wherein the objects of the object class overlap or adjoin one another in the captured image , and the result of the analysis is provided as the first analysis result ; carrying out a second analysis of the captured image , wherein edges (91-95) of one or more objects are detected and the result of the analysis is provided as the second analysis result ; wherein the first analysis and the second analysis are carried out independently of each other; and combining the first analysis result and the second analysis result into an output image in which, on the areas of the detected objects of the object class from the first analysis result , the detected edges (91-95) from the second analysis result are cut out, so that individual objects (51-57) of the object class stand out from the areas and are visible separated from each other by the edges.
A mounting assembly for a rocket engine , the mounting assembly comprising: - a spherical bearing base ; - a spherical retaining ring coupled with the spherical bearing base and forming a space between at least a portion of the spherical retaining ring and at least a portion of the spherical bearing base ; - a suspension link having a spherical end , wherein the spherical end is arranged in the space between the spherical bearing base and the spherical retaining ring ; - a first plurality of balls arranged between the spherical bearing base and the spherical end of the suspension link ; and - a second plurality of balls arranged between the spherical end of the suspension link and the spherical retaining ring , wherein the spherical bearing base is in contact with the spherical end of the suspension link via the first plurality of balls and the spherical end of the suspension link is in contact with the spherical retaining ring via the second plurality of balls , and wherein the spherical bearing base is part of an injector head of the rocket engine or is part of a tank for storing fuel for the rocket engine . - a spherical bearing base ; - a spherical retaining ring coupled with the spherical bearing base and forming a space between at least a portion of the spherical retaining ring and at least a portion of the spherical bearing base ; - a suspension link having a spherical end , wherein the spherical end is arranged in the space between the spherical bearing base and the spherical retaining ring ; - a first plurality of balls arranged between the spherical bearing base and the spherical end of the suspension link ; and - a second plurality of balls arranged between the spherical end of the suspension link and the spherical retaining ring , wherein the spherical bearing base is in contact with the spherical end of the suspension link via the first plurality of balls and the spherical end of the suspension link is in contact with the spherical retaining ring via the second plurality of balls , and wherein the spherical bearing base is part of an injector head of the rocket engine or is part of a tank for storing fuel for the rocket engine .
Fault detection device (40; 41; 42) for the detection of signal path defects in a voltage measuring system having a signal measuring circuit for measuring bioelectric signals (BS) with a number of useful signal paths (6a; 6b), wherein the fault detection device (40; 41; 42) has at least the following components: - at least one electricity generating unit , wherein the electricity generating unit is designed such that it impresses a signal (I E1; I E2 ) on a first useful signal path (6a; 6b), wherein the impressed current is in the nanoampere range, in order not to falsify measured bioelectric signals, - at least one first comparison unit , which checks whether the signal of the first useful signal path (6a; 6b) lies within a measuring range, in which it is assumed that the signal flows on the useful signal path, - at least one first interference signal path , designed as a current measurement path, for current-detecting measurement of a first interference signal (I RLD ) - and a signal path defect analysis unit , which is designed to detect a signal path defect (D) in a useful signal path (6a; 6b) of the voltage measuring system when the impressed signal (I E1; I E2 ) is not measured on the first interference signal path and the checked signal of the comparison unit lies within the measuring range. - at least one electricity generating unit , wherein the electricity generating unit is designed such that it impresses a signal (I E1; I E2 ) on a first useful signal path (6a; 6b), wherein the impressed current is in the nanoampere range, in order not to falsify measured bioelectric signals, - at least one first comparison unit , which checks whether the signal of the first useful signal path (6a; 6b) lies within a measuring range, in which it is assumed that the signal flows on the useful signal path, - at least one first interference signal path , designed as a current measurement path, for current-detecting measurement of a first interference signal (I RLD ) - and a signal path defect analysis unit , which is designed to detect a signal path defect (D) in a useful signal path (6a; 6b) of the voltage measuring system when the impressed signal (I E1; I E2 ) is not measured on the first interference signal path and the checked signal of the comparison unit lies within the measuring range.
A thermally conductive composition in which a thermally conductive filler is contained in a polymer matrix, the composition comprising a methyl phenyl silicone, wherein the thermally conductive filler has an average particle size of 10 to 100 μm, the content of the thermally conductive filler in the thermally conductive composition is 70% to 90% by volume, and 30% to 80% by volume of the thermally conductive filler has a particle size of 40 μm or more, wherein the polymer matrix is an addition-reaction-curable silicone. wherein the thermally conductive filler has an average particle size of 10 to 100 μm, the content of the thermally conductive filler in the thermally conductive composition is 70% to 90% by volume, and 30% to 80% by volume of the thermally conductive filler has a particle size of 40 μm or more, wherein the polymer matrix is an addition-reaction-curable silicone.
A beverage comprising an exogenous sweetening system comprising (i) aldohexose D-glucose, (ii) optionally a glucose-based sugar polymer, (iii) a non-fructose producing high potency sweetener, (iv) optionally a non-synthetic colorant and (v) optionally a flavorant, wherein the beverage comprises (i) aldohexose D-glucose in a 0.06-0.7 molar concentration and (iii) stevioside as a non-fructose producing high potency sweetener in a 0.1 to 1.0 millimolar concentration, or (i) aldohexose D-glucose in a 0.1-0.7 molar concentration and (iii) rebaudioside as a non-fructose producing high potency sweetener including rebaudoside A, rebaudoside B, rebaudoside C, rebaudoside D, rebaudoside E and/or rebaudoside M in a 0.1 to 1.0 millimolar concentration, and wherein the beverage is essentially free of HFCS, sucrose, or any form of fructose or fructose-containing saccharide (i.e. less than 0.002 molar in the case of a 355 ml beverage or less than 1 gram per serving. (i) aldohexose D-glucose in a 0.06-0.7 molar concentration and (iii) stevioside as a non-fructose producing high potency sweetener in a 0.1 to 1.0 millimolar concentration, or (i) aldohexose D-glucose in a 0.1-0.7 molar concentration and (iii) rebaudioside as a non-fructose producing high potency sweetener including rebaudoside A, rebaudoside B, rebaudoside C, rebaudoside D, rebaudoside E and/or rebaudoside M in a 0.1 to 1.0 millimolar concentration, and wherein the beverage is essentially free of HFCS, sucrose, or any form of fructose or fructose-containing saccharide (i.e. less than 0.002 molar in the case of a 355 ml beverage or less than 1 gram per serving.
A dry powder inhaler , comprising: a vibrating mechanism ; a supply of a dry powder operatively coupled to the vibrating mechanism ; a power source in communication with the vibrating mechanism ; an airflow sensor ; a vibration sensor in communication with the vibrating mechanism ; and a feedback control in communication with the airflow sensor , the vibration sensor , and the power source , whereby the feedback control controls power delivered to the vibrating mechanism , the feedback control comprising a frequency sweep generator connected between the power source and the vibrating mechanism, thereby controlling a characteristic of power delivered to the vibrating mechanism, characterised in that the feedback control is adapted to control power delivered to the vibrating mechanism to drive the vibrating mechanism to a steady state condition at plural different power inputs, the vibration sensor being adapted to sense a continued vibration from the vibrating mechanism after each respective power input is removed. a vibrating mechanism ; a supply of a dry powder operatively coupled to the vibrating mechanism ; a power source in communication with the vibrating mechanism ; an airflow sensor ; a vibration sensor in communication with the vibrating mechanism ; and a feedback control in communication with the airflow sensor , the vibration sensor , and the power source , whereby the feedback control controls power delivered to the vibrating mechanism , the feedback control comprising a frequency sweep generator connected between the power source and the vibrating mechanism, thereby controlling a characteristic of power delivered to the vibrating mechanism, characterised in that the feedback control is adapted to control power delivered to the vibrating mechanism to drive the vibrating mechanism to a steady state condition at plural different power inputs, the vibration sensor being adapted to sense a continued vibration from the vibrating mechanism after each respective power input is removed.