mhurhangee/ep-ind-claims huggingface dataset:
An impedance adaptation circuit, used for being connected between a head unit and an audio processing circuit, wherein the impedance adaptation circuit comprises an adaptation resistor and a switching element; a first end of the adaptation resistor is connected to a first audio output end of the head unit and a first audio input end of the audio processing circuit; a second end of the adaptation resistor is connected to a first end of the switching element; a second end of the switching element is connected to a second audio output end of the head unit and a second audio input end of the audio processing circuit; the adaptation resistor has a resistance value within a matched working impedance range of the head unit; and the switching element is configured to be in an on state during start-up load diagnostic of the head unit and switch off after the start-up load diagnostic is completed. the impedance adaptation circuit comprises an adaptation resistor and a switching element; a first end of the adaptation resistor is connected to a first audio output end of the head unit and a first audio input end of the audio processing circuit; a second end of the adaptation resistor is connected to a first end of the switching element; a second end of the switching element is connected to a second audio output end of the head unit and a second audio input end of the audio processing circuit; the adaptation resistor has a resistance value within a matched working impedance range of the head unit; and the switching element is configured to be in an on state during start-up load diagnostic of the head unit and switch off after the start-up load diagnostic is completed.
A method of estimating a replenishment amount of a fluid to be dispensed onto a substrate holding a biological sample undergoing an assay, the method comprising: a. capturing an image of the fluid dispensed on the substrate holding the biological sample with an imaging system to produce a captured image, wherein the fluid is confined to a space between the substrate and a cover; b. analyzing the captured image to identify fluid boundaries of the fluid dispensed on the substrate and confined to the space between the substrate and the cover; c. calculating a fluid volume of the fluid dispensed on the substrate using a fluid width determined from the fluid boundaries; and, d. calculating the replenishment amount of the fluid based on the calculated fluid volume and a predetermined fluid volume. a. capturing an image of the fluid dispensed on the substrate holding the biological sample with an imaging system to produce a captured image, wherein the fluid is confined to a space between the substrate and a cover; b. analyzing the captured image to identify fluid boundaries of the fluid dispensed on the substrate and confined to the space between the substrate and the cover; c. calculating a fluid volume of the fluid dispensed on the substrate using a fluid width determined from the fluid boundaries; and, d. calculating the replenishment amount of the fluid based on the calculated fluid volume and a predetermined fluid volume.
Process for purifying 2,3,3,3-tetrafluoro-1-propene using a first composition comprising 2,3,3,3-tetrafluoro-1-propene, 1,1,1,2,2-pentafluoropropane and trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E), said process comprising the steps of: a) placing said first composition in contact with at least one organic extracting agent to form a second composition; b) extractive distillation of said second composition to form: i) a third composition comprising said organic extracting agent and trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E); and ii) a stream comprising 2,3,3,3-tetrafluoro-1-propene and 1,1,1,2,2-pentafluoropropane; c) recovery and separation of said third composition to form a stream comprising said organic extracting agent and a stream comprising trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E); preferably, the stream comprising said organic extracting agent is recycled into step a). a) placing said first composition in contact with at least one organic extracting agent to form a second composition; b) extractive distillation of said second composition to form: i) a third composition comprising said organic extracting agent and trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E); and ii) a stream comprising 2,3,3,3-tetrafluoro-1-propene and 1,1,1,2,2-pentafluoropropane; i) a third composition comprising said organic extracting agent and trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E); and ii) a stream comprising 2,3,3,3-tetrafluoro-1-propene and 1,1,1,2,2-pentafluoropropane; c) recovery and separation of said third composition to form a stream comprising said organic extracting agent and a stream comprising trans-1,3,3,3-tetrafluoro-1-propene (1234ze-E); preferably, the stream comprising said organic extracting agent is recycled into step a).
Cross-polarised panel antenna system with variable electrical tilting comprising multiple ports, including at least two unitary panel antennas (2A, 2B), each having two different polarisation ports (6A, 6B; 7A, 7B) and two series of aligned radiating elements, and at least two mechanical interfaces (8A, 8B) connected to the supply network (4A, 4B; 5A, 5B) of the radiating elements of each polarity, characterised in that each mechanical interface (8A, 8B) is connected to the ports of the same polarity (6A, 6B; 7A, 7B) respectively belonging to the first unitary panel antenna and the second unitary panel antenna.
A box-type structure comprising shielding plates (1, 2, 3, 4, 5) made of a sintered body of lithium fluoride, having neutron-shielding performance, wherein edge portions of the shielding plates are abutted and joined to each other, the edge portions of the shielding plates have a halving joint structure, and the halving joint structure has a stepped or inclined cutout shape, the box-type structure has a plurality of faces, and a part of the faces has an opening portion, and the box-type structure has a cube or rectangular parallelepiped shape. edge portions of the shielding plates are abutted and joined to each other, the edge portions of the shielding plates have a halving joint structure, and the halving joint structure has a stepped or inclined cutout shape, the box-type structure has a plurality of faces, and a part of the faces has an opening portion, and the box-type structure has a cube or rectangular parallelepiped shape.
A process for the selective nitration of n-butane, the process comprising: providing a down-flow configured reactor; reacting n-butane with aqueous nitric acid at a pressure of from 68 atm (1000 psi) to 102 atm (1500 psi) and a temperature of between 220 and 325 degrees Celsius; and recovering the formed nitrated compounds, wherein the aqueous nitric acid is a 25 to 35 weight percent solution. providing a down-flow configured reactor; reacting n-butane with aqueous nitric acid at a pressure of from 68 atm (1000 psi) to 102 atm (1500 psi) and a temperature of between 220 and 325 degrees Celsius; and recovering the formed nitrated compounds,
A method comprising: transmitting data on two wire pairs carrying DC pulse power, wherein the DC pulse power comprises a plurality of voltage pulses with the voltage pulses on the wire pairs offset between the wire pairs to provide continuous power; and identifying transitions between at least one of a pulse-on time and a pulse-off time, and a pulse-off time and a pulse-on time on at least one of the wire pairs; wherein data transmission on said at least one wire pair is controlled during said identified transitions on the wire pair to prevent interference between the DC pulse power and the data. transmitting data on two wire pairs carrying DC pulse power, wherein the DC pulse power comprises a plurality of voltage pulses with the voltage pulses on the wire pairs offset between the wire pairs to provide continuous power; and identifying transitions between at least one of a pulse-on time and a pulse-off time, and a pulse-off time and a pulse-on time on at least one of the wire pairs; wherein data transmission on said at least one wire pair is controlled during said identified transitions on the wire pair to prevent interference between the DC pulse power and the data.
A hypertube system for detecting a position of a hypertube vehicle traveling along a travel path, the system comprising: the hypertube vehicle; a tube unit configured to surround the travel path of the hypertube vehicle; at least one LiDAR sensor mounted on an inner wall of the tube unit and including a laser transmission unit configured to irradiate a laser toward the hypertube vehicle and a laser reception unit configured to detect a laser; wherein: the hypertube vehicle includes a reflector configured to reflect the laser irradiated from the LiDAR sensor; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path. the hypertube vehicle; a tube unit configured to surround the travel path of the hypertube vehicle; at least one LiDAR sensor mounted on an inner wall of the tube unit and including a laser transmission unit configured to irradiate a laser toward the hypertube vehicle and a laser reception unit configured to detect a laser; wherein: the hypertube vehicle includes a reflector configured to reflect the laser irradiated from the LiDAR sensor; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path. the hypertube vehicle includes a reflector configured to reflect the laser irradiated from the LiDAR sensor; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path.
A supercharger rotor blade profile comprising a concave undercut (U1, U2), a tip, and a convex addendum between the concave undercut and the tip, wherein the convex addendum comprises a cycloid curve comprising a transition zone, and wherein the transition zone comprises at least two interpolated and stitched spline curves (S1, S2).
Laser spark plug, in particular for an internal combustion engine, having a combustion chamber window through which laser radiation can be irradiated from an interior space of the laser spark plug into an external space, wherein the laser spark plug has a component (120a, 120b) which at least partially surrounds the beam path of the laser radiation in the region of the external space, characterized in that the laser spark plug has, in the region of the component (120a, 120b), at least one channel which has at least two opening sections (122a, 122b) and permits fluid communication between the opening sections (122a, 122b), wherein a first opening section is arranged in the region of an external surface of the combustion chamber window and a second opening section is arranged in a radially outer region of the laser spark plug, in particular of the component (120a, 120b), and wherein the channel has, at least in certain sections, an internal thread for receiving a grub screw.
A tape cartridge mounted to a tape printer having a printing head, comprising: a cartridge case; a platen roller that is housed in the cartridge case and feeds an ink ribbon and a printing tape pressed between the platen roller and the printing head; a tape delivery port that is provided in the cartridge case and feeds the printing tape, which is fed by the platen roller and separated from the ink ribbon, to outside of the cartridge case; and a delivery guide that has a first guide section at a side of the printing head and a second guide section at a side of the platen roller, which extend from edges of the tape delivery port to inside of the cartridge case while spreading apart from each other, and guides a distal end of the printing tape moved to a tape pressing position between the printing head and the platen roller by rotation of the platen roller in a counterclockwise direction into the tape delivery port, wherein the first guide section of the delivery guide has a guide surface which is formed such that a separation distance from a virtual line is long at a leading-end section of the first guide section as compared with a base end section of the first guide section, the virtual line passing through a tape pressing position and a center of the tape delivery port, and wherein the second guide section of the delivery guide has a guide surface which is formed such that the separation distance from the virtual line is long at a leading-end section of the second guide section as compared with a base end section of the second guide section. a cartridge case; a platen roller that is housed in the cartridge case and feeds an ink ribbon and a printing tape pressed between the platen roller and the printing head; a tape delivery port that is provided in the cartridge case and feeds the printing tape, which is fed by the platen roller and separated from the ink ribbon, to outside of the cartridge case; and a delivery guide that has a first guide section at a side of the printing head and a second guide section at a side of the platen roller, which extend from edges of the tape delivery port to inside of the cartridge case while spreading apart from each other, and guides a distal end of the printing tape moved to a tape pressing position between the printing head and the platen roller by rotation of the platen roller in a counterclockwise direction into the tape delivery port, wherein the first guide section of the delivery guide has a guide surface which is formed such that a separation distance from a virtual line is long at a leading-end section of the first guide section as compared with a base end section of the first guide section, the virtual line passing through a tape pressing position and a center of the tape delivery port, and wherein the second guide section of the delivery guide has a guide surface which is formed such that the separation distance from the virtual line is long at a leading-end section of the second guide section as compared with a base end section of the second guide section.
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, and - an evaluation unit, characterized in that - the evaluation unit is configured to evaluate a temporal distance (ZA1 to ZAn) between consecutive electrical pulses for determining a measurement variable, - the evaluation unit is configured to ascertain the respective temporal distances (ZA1 to ZAn) between consecutive electrical pulses for pulses which lie within a specifiable time interval 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, and - an evaluation unit, characterized in that - the evaluation unit is configured to evaluate a temporal distance (ZA1 to ZAn) between consecutive electrical pulses for determining a measurement variable, - the evaluation unit is configured to ascertain the respective temporal distances (ZA1 to ZAn) between consecutive electrical pulses for pulses which lie within a specifiable time interval 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 method of wireless communication comprising: determining a condition related to a plurality of resources; identifying a desired amount of resources from the plurality of resources based on the condition, wherein specific resources of the plurality of resources are listed in a carrier mask,CM, priority list; and transmitting a resource utilization message,RUM, for at least one of the specific resources based on the desired amount of resources. determining a condition related to a plurality of resources; identifying a desired amount of resources from the plurality of resources based on the condition, wherein specific resources of the plurality of resources are listed in a carrier mask,CM, priority list; and transmitting a resource utilization message,RUM, for at least one of the specific resources based on the desired amount of resources.
A method for information feedback, applied to unicast transmission in sidelink, the method comprising: receiving, by a first terminal, data from a second terminal, and determining, by the first terminal, first time information according to the data, wherein the first time information is carried in the data received from the second terminal; characterized in that the method comprises: determining, by the first terminal, a first transmission time used to transmit feedback information corresponding to the data in a candidate time domain resource set, wherein the candidate time domain resource set is determined by the first terminal based on the first time information; and transmitting, by the first terminal, the feedback information to the second terminal at the first transmission time; wherein the first time information is used to indicate information of maximum delay of the feedback information received by the second terminal. determining, by the first terminal, a first transmission time used to transmit feedback information corresponding to the data in a candidate time domain resource set, wherein the candidate time domain resource set is determined by the first terminal based on the first time information; and transmitting, by the first terminal, the feedback information to the second terminal at the first transmission time; wherein the first time information is used to indicate information of maximum delay of the feedback information received by the second terminal.
A spinning forming apparatus (101; 102; 103) for shaping a target plate while rotating the plate around a rotational axis, the spinning forming apparatus (101; 102; 103) comprising: a holding member including a receiving jig to which the plate is attached and a rotational shaft configured to rotate the plate around the rotational axis together with the receiving jig; a processing tool configured to contact a first main surface of the plate to process and shape the plate; wherein the processing tool includes a processing roller configured to rotate around a rotational axis that forms an angle relative to the rotational axis, the processing roller being configured to contact the first main surface of the plate; and a heater configured to heat the plate, wherein: the plate is configured to be heated at the time of processing; characterised in that the heater is arranged at the opposite side from the processing tool across the plate so as to face a second main surface of the plate opposite to the first main surface; in that the heater performs heating by high frequency induction heating; and in that the heater locally heats a position of the second main surface of the plate, the position being located on a circumference around the rotational axis, the circumference being defined by a position, with which the processing tool contacts, of the plate. a holding member including a receiving jig to which the plate is attached and a rotational shaft configured to rotate the plate around the rotational axis together with the receiving jig; a receiving jig to which the plate is attached and a rotational shaft configured to rotate the plate around the rotational axis together with the receiving jig; a processing tool configured to contact a first main surface of the plate to process and shape the plate; wherein the processing tool includes a processing roller configured to rotate around a rotational axis that forms an angle relative to the rotational axis, the processing roller being configured to contact the first main surface of the plate; and a heater configured to heat the plate, wherein: the plate is configured to be heated at the time of processing; characterised in that the heater is arranged at the opposite side from the processing tool across the plate so as to face a second main surface of the plate opposite to the first main surface; in that the heater performs heating by high frequency induction heating; and in that the heater locally heats a position of the second main surface of the plate, the position being located on a circumference around the rotational axis, the circumference being defined by a position, with which the processing tool contacts, of the plate.
Holding device for a vertically adjustable functional element comprising: a base support with a receiving device for at least one carrier element shaped in one piece for the functional element, the carrier element shaped in one piece having a base section and a vertically adjustable flexor section arranged above the base section, on which the functional element is fixable mounted, and the flexor section being isolated from the base section by at least one lamellar shaped section, and the base section having an adjustable pressure element, exercising a mechanical pressure on the base section, depending on the selected position of the contact pressure element, for the height adjustment. a base support with a receiving device for at least one carrier element shaped in one piece for the functional element, the carrier element shaped in one piece having a base section and a vertically adjustable flexor section arranged above the base section, on which the functional element is fixable mounted, and the flexor section being isolated from the base section by at least one lamellar shaped section, and the base section having an adjustable pressure element, exercising a mechanical pressure on the base section, depending on the selected position of the contact pressure element, for the height adjustment.