mhurhangee/ep-ind-claims huggingface dataset:
A method of reducing noise and/or vibration in a pulsejet system, comprising: providing a first pulse combustor, wherein the first combustor comprises a first combustion chamber, a first inlet pipe, a first exhaust pipe, and a first fuel injector for injecting fuel into the first combustion chamber, wherein the first pulse combustor has a fundamental oscillation mode and one or more additional oscillation modes; determining along a length of the first pulse combustor a location of a pressure anti-node of a first oscillation mode; attaching at least one resonator along the length of the first pulse combustor at the location corresponding to the pressure anti-node of the first oscillation mode; and adjusting a size of the resonator to adjust a resonant frequency of the resonator to correspond to a first frequency of a first oscillation mode of the one or more additional oscillation modes to reduce excitation of the first oscillation mode. providing a first pulse combustor, wherein the first combustor comprises a first combustion chamber, a first inlet pipe, a first exhaust pipe, and a first fuel injector for injecting fuel into the first combustion chamber, wherein the first pulse combustor has a fundamental oscillation mode and one or more additional oscillation modes; determining along a length of the first pulse combustor a location of a pressure anti-node of a first oscillation mode; attaching at least one resonator along the length of the first pulse combustor at the location corresponding to the pressure anti-node of the first oscillation mode; and adjusting a size of the resonator to adjust a resonant frequency of the resonator to correspond to a first frequency of a first oscillation mode of the one or more additional oscillation modes to reduce excitation of the first oscillation mode.
A method of operating a self-propelled agricultural working machine comprising at least one working member and a driver assist system for generating control actions within the working machine, wherein there is provided a sensor arrangement for generating surroundings information, wherein the driver assist system generates the control actions based on the surroundings information, wherein the sensor arrangement has a camera-based sensor system and a laser-based sensor system which respectively generate sensor information relating to a predetermined relevant surroundings region of the working machine, wherein the sensor information of the camera-based sensor system is present as output camera images, characterised in that the driver assist system has an image processing system for processing the output camera images, that the output camera images are segmented by the image processing system into image segments in accordance with a segmentation rule, that there is provided a sensor fusion module and that the segmented camera images are fused by the sensor fusion module with the sensor information of the laser-based sensor system. wherein the sensor information of the camera-based sensor system is present as output camera images, characterised in that the driver assist system has an image processing system for processing the output camera images, that the output camera images are segmented by the image processing system into image segments in accordance with a segmentation rule, that there is provided a sensor fusion module and that the segmented camera images are fused by the sensor fusion module with the sensor information of the laser-based sensor system.
A method for forming an oxide-dispersion strengthened coating on a metal substrate, the method comprising: comminuting MCrAlY alloy particles to form an oxygen-enriched powder, wherein at least 25% by volume of the MCrAlY alloy particles within the oxygen-enriched powder have a particle size of less than 5 μm; mixing the oxygen-enriched powder with coarse MCrAlY alloy particles, wherein at least 90% by volume of the coarse MCrAlY alloy particles have a particle size of greater than 5 μm; applying the oxygen-enriched powder to the metal substrate to form a coating; and heating the oxygen-enriched powder to precipitate oxide dispersoids within the coating. comminuting MCrAlY alloy particles to form an oxygen-enriched powder, wherein at least 25% by volume of the MCrAlY alloy particles within the oxygen-enriched powder have a particle size of less than 5 μm; mixing the oxygen-enriched powder with coarse MCrAlY alloy particles, wherein at least 90% by volume of the coarse MCrAlY alloy particles have a particle size of greater than 5 μm; applying the oxygen-enriched powder to the metal substrate to form a coating; and heating the oxygen-enriched powder to precipitate oxide dispersoids within the coating.
Method for detecting a cleaning process in a plant having filters (1, 31) arranged spatially offset from one another, wherein a first gas containing solid particles can be fed in a first flow direction through the filter (1, 31) concerned and can be filtered by means of the filter concerned (1, 31), wherein, for the purpose of cleaning the filter (1, 31) concerned, a second gas can be fed through the filter concerned (1, 31) in a direction of flow opposite to the first direction of flow, characterised in that a relevant noise which arises during the cleaning of the filter (1, 31) concerned is captured by means of acoustic sensors (2, 32, 2', 32', 42), for picking up air sounds, which are arranged with a spatial offset from one another, wherein the cleaning of the filter (1, 31) concerned is detected by the capture of the noise concerned by means of at least two of the acoustic sensors (2, 32, 2', 32', 42), wherein, by comparing for at least two, preferably three or more, of the acoustic sensors (2, 32, 2', 32', 42) the relevant time points for the arrival of the noise concerned, at least one difference interval, preferably two or more difference intervals, is/are determined, wherein the difference interval which is determined is compared with a relevant stored difference interval.
An intra prediction method performed by a decoding apparatus, the method comprising: deriving a first intra prediction mode based on a left neighboring block of a current block; deriving a second intra prediction mode based on an upper neighboring block of the current block; determining an intra prediction mode for the current block based on the first intra prediction mode and the second intra prediction mode; and generating prediction samples on the current block based on the determined intra prediction mode, characterised in that when the upper neighboring block is not located in a current largest coding unit, LCU, in which the current block is located, the second intra prediction mode is set equal to an intra planar mode. deriving a first intra prediction mode based on a left neighboring block of a current block; deriving a second intra prediction mode based on an upper neighboring block of the current block; determining an intra prediction mode for the current block based on the first intra prediction mode and the second intra prediction mode; and generating prediction samples on the current block based on the determined intra prediction mode, characterised in that when the upper neighboring block is not located in a current largest coding unit, LCU, in which the current block is located, the second intra prediction mode is set equal to an intra planar mode.
A method for executing a program, comprising: obtaining a related operation item of an object to be operated, and displaying, on a display screen, an operation icon corresponding to the related operation item, wherein the object to be operated is a computer program operable by a user on the display screen, and a direction of pointing from an original display coordinate of the object to be operated towards a display coordinate of the operation icon is an operation icon direction; according to the original display coordinate of the object to be operated and a display coordinate of the object after being dragged by the user, calculating a movement direction of the object to be operated; starting to execute a functional operation corresponding to the operation icon when it is detected that the movement direction of the object to be operated is the same as the operation icon direction; continuing to execute the functional operation corresponding to the operation icon if it is detected that the object to be operated moves continuously along the operation icon direction; and stopping executing the functional operation corresponding to the operation icon and rolling back the executed functional operation, if it is detected that the object to be operated is released by the user without being moved to a region of the operation icon. obtaining a related operation item of an object to be operated, and displaying, on a display screen, an operation icon corresponding to the related operation item, wherein the object to be operated is a computer program operable by a user on the display screen, and a direction of pointing from an original display coordinate of the object to be operated towards a display coordinate of the operation icon is an operation icon direction; according to the original display coordinate of the object to be operated and a display coordinate of the object after being dragged by the user, calculating a movement direction of the object to be operated; starting to execute a functional operation corresponding to the operation icon when it is detected that the movement direction of the object to be operated is the same as the operation icon direction; continuing to execute the functional operation corresponding to the operation icon if it is detected that the object to be operated moves continuously along the operation icon direction; and stopping executing the functional operation corresponding to the operation icon and rolling back the executed functional operation, if it is detected that the object to be operated is released by the user without being moved to a region of the operation icon.
Kit-of-parts for initiating an action by an active implantable medical device, AIMD, configured for being implanted in a body of a patient triggered by an external triggering unit configured to be located outside the body of the patient, the kit-of-parts comprising, the AIMD configured for being implanted in the body of a patient and comprising an encapsulation unit defining an inner volume sealingly separated from an outside of the encapsulation unit by walls, wherein the inner volume comprises an action trigger configured for initiating an action by the AIMD, upon reception of a starting signal from the external triggering unit, wherein the action trigger is electrically coupled to an implantable control logic lodged in the inner volume and configured for controlling operations of the AIMD, the external triggering unit comprising an external emitter configured for emitting the starting signal to the action trigger, wherein • the external emitter comprises one or more sources of light configured for emitting the starting signal in the form of an optical starting signal having a wavelength comprised between 350 and 2200 nm, preferably between 400 and 1500 nm, • the walls of the encapsulation unit comprise a transparent wall portion which is transparent to the optical starting signal, and • the action trigger is an optical action trigger comprising one or more photodetectors facing the transparent wall portion and configured for transforming the optical starting signal into an electrical signal, which serves to initiate the action by the AIMD, characterized in that, the optical action trigger is idle and does not consume any power as long as the one or more photodetectors do not receive an optical starting signal. the AIMD configured for being implanted in the body of a patient and comprising an encapsulation unit defining an inner volume sealingly separated from an outside of the encapsulation unit by walls, wherein the inner volume comprises an action trigger configured for initiating an action by the AIMD, upon reception of a starting signal from the external triggering unit, wherein the action trigger is electrically coupled to an implantable control logic lodged in the inner volume and configured for controlling operations of the AIMD, the external triggering unit comprising an external emitter configured for emitting the starting signal to the action trigger, • the external emitter comprises one or more sources of light configured for emitting the starting signal in the form of an optical starting signal having a wavelength comprised between 350 and 2200 nm, preferably between 400 and 1500 nm, • the walls of the encapsulation unit comprise a transparent wall portion which is transparent to the optical starting signal, and • the action trigger is an optical action trigger comprising one or more photodetectors facing the transparent wall portion and configured for transforming the optical starting signal into an electrical signal, which serves to initiate the action by the AIMD,
A method for communication of a base station (101, 211, 212), the method comprising: determining whether an unlicensed band channel of an unlicensed band is in an idle state during a first channel sensing duration (335, 435, 535); transmitting data to a terminal (104, 214) through the unlicensed band during a first channel occupying duration (340, 440, 540), in case that the unlicensed band channel of the unlicensed band is in the idle state during the first channel sensing duration; determining, when the first channel occupying duration is less than a maximum occupancy time (T mcot, T mcot,p) possible for the base station or the terminal to continuously occupy the unlicensed band and the first channel occupying duration is equal to an actual occupancy time (T j) allowed for the base station or the terminal to continuously occupy the unlicensed band, whether the unlicensed band channel of the unlicensed band is in an idle state during a second channel sensing duration (350, 450, 550); and transmitting the data to the terminal through the unlicensed band during a second channel occupying duration (360, 460, 560), in case that the unlicensed band channel of the unlicensed band is in the idle state during the second channel sensing duration, wherein a sum of the first channel occupying duration, the second channel sensing duration, and the second channel occupying duration is equal to or less than a certain time determined based on a rounding up value of a result of a calculation between the maximum occupancy time and the actual occupancy time. determining whether an unlicensed band channel of an unlicensed band is in an idle state during a first channel sensing duration (335, 435, 535); transmitting data to a terminal (104, 214) through the unlicensed band during a first channel occupying duration (340, 440, 540), in case that the unlicensed band channel of the unlicensed band is in the idle state during the first channel sensing duration; determining, when the first channel occupying duration is less than a maximum occupancy time (T mcot, T mcot,p) possible for the base station or the terminal to continuously occupy the unlicensed band and the first channel occupying duration is equal to an actual occupancy time (T j) allowed for the base station or the terminal to continuously occupy the unlicensed band, whether the unlicensed band channel of the unlicensed band is in an idle state during a second channel sensing duration (350, 450, 550); and transmitting the data to the terminal through the unlicensed band during a second channel occupying duration (360, 460, 560), in case that the unlicensed band channel of the unlicensed band is in the idle state during the second channel sensing duration, wherein a sum of the first channel occupying duration, the second channel sensing duration, and the second channel occupying duration is equal to or less than a certain time determined based on a rounding up value of a result of a calculation between the maximum occupancy time and the actual occupancy time.
Induction hob, having - a hob plate, - at least one induction heating coil which is arranged below the hob plate, and - a plurality of sensor coils which are arranged below the hob plate and above the induction heating coil, wherein the sensor coils are arranged on a flexible support and electrically contacted thereon with electrical conductors, characterized in that - the flexible support has a single common connection device for electrical contact to be made, - the induction hob has at least one temperature sensor which is arranged on the flexible support close to a sensor coil or on a sensor coil, - one temperature sensor is provided for each sensor coil, - the temperature sensor is in the form of a THT standard component having two projecting connection wires, or is in the form of a SMD component. - a hob plate, - at least one induction heating coil which is arranged below the hob plate, and - a plurality of sensor coils which are arranged below the hob plate and above the induction heating coil, - the flexible support has a single common connection device for electrical contact to be made, - the induction hob has at least one temperature sensor which is arranged on the flexible support close to a sensor coil or on a sensor coil, - one temperature sensor is provided for each sensor coil, - the temperature sensor is in the form of a THT standard component having two projecting connection wires, or is in the form of a SMD component.
A method in a wireless communication infrastructure entity wherein information is communicated in a frame (210, 220, 230) comprising multiple sub-frames (212, 232, 300), the method comprising: grouping at least one wireless communication terminal in a first group and grouping at least one separate wireless communication terminal in a second group, the method being characterized by: assigning the first and second groups to at least one common sub-frame, but less than all sub-frames constituting a common frame; assigning a control channel of the at least one common sub-frame to the first and second groups. grouping at least one wireless communication terminal in a first group and grouping at least one separate wireless communication terminal in a second group, the method being characterized by: assigning the first and second groups to at least one common sub-frame, but less than all sub-frames constituting a common frame; assigning a control channel of the at least one common sub-frame to the first and second groups. assigning the first and second groups to at least one common sub-frame, but less than all sub-frames constituting a common frame; assigning a control channel of the at least one common sub-frame to the first and second groups.
A disconnection detection circuit of a pressure detection device, with the pressure detection device including at least: a pressure detection portion having a pressure detection element which receives pressure so as to output a charge signal corresponding to the pressure; and a wiring cable which transmits a detection signal output from the pressure detection portion to an external circuit, the disconnection detection circuit detecting a disconnection of the wiring cable in the pressure detection device, characterised in that the disconnection detection circuit further comprises: a pull-up resistor to which the detection signal (Dd) is fed and which connects a signal line connected to the wiring cable to a power supply (Vdd) or a pull-down resistor which connects the signal line to a GND; and a voltage clip circuit which includes a high-voltage clip circuit which is connected between the signal line and the power supply and which clips the voltage of the signal line to a maximum specified voltage and a low-voltage clip circuit which is connected between the signal line and the GND and which clips the voltage of the signal line to a minimum specified voltage. a pull-up resistor to which the detection signal (Dd) is fed and which connects a signal line connected to the wiring cable to a power supply (Vdd) or a pull-down resistor which connects the signal line to a GND; and a voltage clip circuit which includes a high-voltage clip circuit which is connected between the signal line and the power supply and which clips the voltage of the signal line to a maximum specified voltage and a low-voltage clip circuit which is connected between the signal line and the GND and which clips the voltage of the signal line to a minimum specified voltage.
Device for disinfecting or sterilizing a manually actuatable handle, in particular a rotatable handle, wherein the device has a container for a liquid disinfecting agent, and wherein the device has a flexible cover element which is fixed on the handle and which at least in part forms a gripping surface and is connected to the container, wherein the cover element is configured at least in part as a hollow body forming a reservoir for the disinfecting agent, said hollow body having a plurality of outlet openings through which the disinfecting agent reaches the gripping surface, wherein the outlet openings for the disinfecting agent are closed in the not-in-use state and are opened in a use state when manually actuated and loaded by a pressure force, characterized in that the cover element has a liquid-impervious inner surface, which can be placed against the handle, and a flexible outer surface, which is equipped with the outlet openings and is designed to be deformable counter to an elastic restoring force, and in that the outlet openings have notched interruptions which, on account of the pressure force that arises during actuation, free a channel-like passage for the disinfecting agent, such that the only outlet openings that are opened on account of the pressure force are the ones located in the region of contact with the hand.