mhurhangee/ep-ind-claims huggingface dataset:
Electrical circuit arrangement, - wherein the circuit arrangement has at least one first capacitor and at least one further circuit part which electrically interacts with the first capacitor, - wherein the further circuit part has a circuit carrier (4"), on which electrical and/or electronic components are arranged, - wherein the first capacitor surrounds a cavity in an annular manner and is an integral part of a first capacitor arrangement, which surrounds the cavity in an annular manner, - wherein the further circuit part is arranged at least partially within the cavity and is electrically connected to the first capacitor, - wherein the first capacitor arrangement has securing elements, by means of which the circuit arrangement can be secured mechanically to a holding element and - wherein the first capacitor arrangement has contact elements on its interior facing the cavity and/or on its exterior facing away from the cavity, by way of which the first capacitor can make electrical contact with the further circuit part, characterised in that - the further circuit part has spring contacts for making electrical contact with the contact elements and - the spring contacts can be pressed against the contact elements, wherein the further circuit part is held in a mechanically stable manner by the first capacitor arrangement. - wherein the circuit arrangement has at least one first capacitor and at least one further circuit part which electrically interacts with the first capacitor, - wherein the further circuit part has a circuit carrier (4"), on which electrical and/or electronic components are arranged, - wherein the first capacitor surrounds a cavity in an annular manner and is an integral part of a first capacitor arrangement, which surrounds the cavity in an annular manner, - wherein the further circuit part is arranged at least partially within the cavity and is electrically connected to the first capacitor, - wherein the first capacitor arrangement has securing elements, by means of which the circuit arrangement can be secured mechanically to a holding element and - wherein the first capacitor arrangement has contact elements on its interior facing the cavity and/or on its exterior facing away from the cavity, by way of which the first capacitor can make electrical contact with the further circuit part, - the further circuit part has spring contacts for making electrical contact with the contact elements and - the spring contacts can be pressed against the contact elements, wherein the further circuit part is held in a mechanically stable manner by the first capacitor arrangement.
A method of providing audio/video data to a media output device, the method comprising: receiving, by a host device, a first transport stream; receiving, by a unit, the first transport stream from the host device, the unit comprising a demultiplexer, a multiplexer and a transcoder; demultiplexing, by the demultiplexer, the first transport stream to recover a first payload and a second payload; responsive to determining, by the demultiplexer, that a second video compression standard in which the second payload is formatted is not in a set of video compression standards supported by the host device, transporting the second payload to a transcoder whose output is connected to the multiplexer; responsive to determining, by the demultiplexer, that a first video compression standard in which the first payload is formatted is in the set of video compression standards supported by the host device, bypassing the transcoder and transporting the first payload to the multiplexer; transcoding, by the transcoder, the second payload from the second video compression standard to the first video compression standard, resulting in a transcoded second payload; multiplexing, by the multiplexer, the first payload and the transcoded second payload to generate a second transport stream; processing, by the host device, the second transport stream to recover first audio/video data carried in one or more payloads of the second transport stream; and outputting, by the host device, to the media output device, the first audio/video data. receiving, by a host device, a first transport stream; receiving, by a unit, the first transport stream from the host device, the unit comprising a demultiplexer, a multiplexer and a transcoder; demultiplexing, by the demultiplexer, the first transport stream to recover a first payload and a second payload; responsive to determining, by the demultiplexer, that a second video compression standard in which the second payload is formatted is not in a set of video compression standards supported by the host device, transporting the second payload to a transcoder whose output is connected to the multiplexer; responsive to determining, by the demultiplexer, that a first video compression standard in which the first payload is formatted is in the set of video compression standards supported by the host device, bypassing the transcoder and transporting the first payload to the multiplexer; transcoding, by the transcoder, the second payload from the second video compression standard to the first video compression standard, resulting in a transcoded second payload; multiplexing, by the multiplexer, the first payload and the transcoded second payload to generate a second transport stream; processing, by the host device, the second transport stream to recover first audio/video data carried in one or more payloads of the second transport stream; and outputting, by the host device, to the media output device, the first audio/video data.
A liquid distributor for a separation device, such as for a mass transfer column in particular for a packing column for absorption, stripping, scrubbing or distillation, or for reactor, such as for distributing liquid above a catalyst bed of a reactor, wherein the liquid distributor comprises at least one pre-distributor member and a plurality of distributor members, wherein the at least one pre-distributor member is positioned above the plurality of distributor members, wherein the at least one pre-distributor member comprises at least two troughs (36, 38, 58), which each comprise a plurality of discharge openings, wherein each two of the at least two troughs (36, 38, 58) are connected with each other, wherein a first of the at least two troughs has an overflow means and at least one deflector attached to the overflow means or the side wall of the first of the at least two troughs, wherein a second of the at least two troughs has an upper edge, wherein at least one deflector attached to the overflow means of the first trough extends from above the upper edge (52, 52') of the second trough to the second trough so that liquid flows from the first trough over the overflow means or the side wall and the at least one deflector into the second trough, if the liquid level in the first trough reaches the overflow means, wherein the distributor members comprise a first group of distributor members being arranged at least substantially in parallel to each other, which have the form of a hollow box having two side walls, two front walls and a bottom wall being connected with each other, wherein the bottom wall(s) and/or one of the side walls has a plurality of discharge openings, wherein the top surface being opposite to the bottom wall is open and arranged so that liquid flowing through the plurality of discharge openings of the at least two troughs (36, 38, 58) of the pre-distributor member flows through the top surface into the distributor members of the first group.
A mutant microorganism having the ability to produce malonic acid, wherein a semialdehyde dehydrogenase-encoding gene is introduced in a microorganism having the ability to produce malonic semialdehyde, wherein the semialdehyde dehydrogenase-encoding gene is either pa4123 according to SEQ ID NO: 10 or yneI according to SEQ ID NO: 12 and said microorganism is selected from the group consisting of bacteria, yeasts, and fungi.
Device for manufacturing a bag received in an envelope and containing a brewable material with a bag manufacturing means which is configured to manufacture a bag containing brewable material, and with a sealing station with a sealing jaw element (104, 106) and a counter-jaw element (110, 112) which act on the envelope from opposite sides to seal in the bag, wherein the sealing jaw element (104, 106) is fixed to a sealing jaw swivel arm at which a sealing jaw connecting rod is applied, and the counter-jaw element (110, 112) is fixed to a counter-jaw swivel arm at which a counter-jaw connecting rod is applied, characterized in that the sealing jaw connecting rod and the counter-jaw connecting rod are each eccentrically connected to a common drive shaft of a servomotor.
A method for manufacturing a module strip having elevations in an electrically conductive layer arranged on one side of the module strip, comprising the steps of: - providing a carrier layer and at least one electrically conductive layer; - providing a matrix foil in which recesses are formed, wherein the recesses are configured as through holes; - providing an embossing foil which has a spatial embossing structure, - connecting the carrier layer with the electrically conductive layer into the module strip in the endless laminating press in a continuous process, wherein the electrically conductive layer is pressed into the recesses of the matrix foil, - feeding the matrix foil together with the carrier layer, the embossing foil and the electrically conductive layer to an endless laminating press, wherein the electrically conductive layer is arranged between the matrix foil and the carrier layer and the embossing foil is arranged as an outer layer adjacent to the matrix foil and is structured in the region of the recesses of the matrix foil in such a way that a spatial structure is embossed into the electrically conductive layer pressed into the recesses of the matrix foil in the region of the peaks of the elevations. - providing a carrier layer and at least one electrically conductive layer; - providing a matrix foil in which recesses are formed, wherein the recesses are configured as through holes; - providing an embossing foil which has a spatial embossing structure, - connecting the carrier layer with the electrically conductive layer into the module strip in the endless laminating press in a continuous process, wherein the electrically conductive layer is pressed into the recesses of the matrix foil, - feeding the matrix foil together with the carrier layer, the embossing foil and the electrically conductive layer to an endless laminating press, wherein the electrically conductive layer is arranged between the matrix foil and the carrier layer and the embossing foil is arranged as an outer layer adjacent to the matrix foil and is structured in the region of the recesses of the matrix foil in such a way that a spatial structure is embossed into the electrically conductive layer pressed into the recesses of the matrix foil in the region of the peaks of the elevations.
A method for automatically adjusting the position of an implement of a lift assembly of a work vehicle, the lift assembly comprising a boom coupled to the implement, the method being characterized by: determining, with the computing system, a tilt transition boom angle for the lift assembly that corresponds to a position within a boom travel range of the boom at which a direction of movement of the implement must be reversed to maintain the implement at a target implement angle as the boom is being moved across such position; determining, with the computing system, a closed-loop control signal associated with controlling movement of the implement based at least in part on the tilt transition boom angle; generating, with the computing system, a valve command signal based at least in part on the closed-loop control signal; and controlling, with computing system, an operation of at least one valve (116, 118) associated with the implement based at least in part on the valve command signal to maintain the implement at the target implement angle as the boom is being moved across the boom travel range. determining, with the computing system, a tilt transition boom angle for the lift assembly that corresponds to a position within a boom travel range of the boom at which a direction of movement of the implement must be reversed to maintain the implement at a target implement angle as the boom is being moved across such position; determining, with the computing system, a closed-loop control signal associated with controlling movement of the implement based at least in part on the tilt transition boom angle; generating, with the computing system, a valve command signal based at least in part on the closed-loop control signal; and controlling, with computing system, an operation of at least one valve (116, 118) associated with the implement based at least in part on the valve command signal to maintain the implement at the target implement angle as the boom is being moved across the boom travel range.
A method for controlled extraction through at least one extraction path of fluidisable bulk material from a storage and/or dosing silo, comprising at least one fluidising area promoting and/or actuating the extraction, whereas the fluidising area is fed with compressed air from a source of compressed air (14,15,16), whereas the source of compressed air (14,15,16) is controllable, characterised in that the pressure of the compressed air is regulated, at which the pressure of the compressed air is measured as a return value and the source of compressed air (14, 15, 16) is regulated as a control member in such a way that the pressure of the compressed air is adjusted to a set-pressure, whereas the set-pressure is selected depending on the extraction yield and/or the position of an extraction flowrate regulator of the bulk material provided in the extraction path.
An electromechanical flywheel comprising: a motor-generator rotor; a flywheel mass configured to rotate with the motor-generator rotor; the flywheel mass and the motor-generator rotor located inside an evacuable housing; a gas removal train (900A; 900C; 900E) external to the evacuable housing; and a first pressure sensor (904; 934; 974) configured to sense the pressure in the evacuable housing; characterized by: the motor-generator rotor surrounding a motor-generator stator; the train including a mechanical vacuum pump (910; 949; 980) and a non-mechanical gas removal device (906; 936; 990); getter material (925; 945; 985) and molecular sieve material (923; 947; 987) in a casing (913; 950; 990) of the non-mechanical gas removal device; the train operable to fluidly couple the casing and the evacuable housing for lowering the pressure in the evacuable housing; and the mechanical pump configured to operate intermittently in accordance with differences between a pressure sensed by the first pressure sensor and a threshold vacuum pressure level. a motor-generator rotor; a flywheel mass configured to rotate with the motor-generator rotor; the flywheel mass and the motor-generator rotor located inside an evacuable housing; a gas removal train (900A; 900C; 900E) external to the evacuable housing; and a first pressure sensor (904; 934; 974) configured to sense the pressure in the evacuable housing; characterized by: the motor-generator rotor surrounding a motor-generator stator; the train including a mechanical vacuum pump (910; 949; 980) and a non-mechanical gas removal device (906; 936; 990); getter material (925; 945; 985) and molecular sieve material (923; 947; 987) in a casing (913; 950; 990) of the non-mechanical gas removal device; the train operable to fluidly couple the casing and the evacuable housing for lowering the pressure in the evacuable housing; and the mechanical pump configured to operate intermittently in accordance with differences between a pressure sensed by the first pressure sensor and a threshold vacuum pressure level. the motor-generator rotor surrounding a motor-generator stator; the train including a mechanical vacuum pump (910; 949; 980) and a non-mechanical gas removal device (906; 936; 990); getter material (925; 945; 985) and molecular sieve material (923; 947; 987) in a casing (913; 950; 990) of the non-mechanical gas removal device; the train operable to fluidly couple the casing and the evacuable housing for lowering the pressure in the evacuable housing; and the mechanical pump configured to operate intermittently in accordance with differences between a pressure sensed by the first pressure sensor and a threshold vacuum pressure level.
An acoustic sensor for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient, comprising: a sensor support; a first acoustic sensing element at least partially supported by the sensor support and configured to output a first signal responsive to acoustic vibrations; and a second acoustic sensing element at least partially supported by the sensor support and configured to output a second signal responsive to acoustic vibrations; wherein the first and second acoustic sensing elements are configured to provide the first and second signals to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals, characterized in that the first and second acoustic sensing elements are adhesively coupled to one another by an adhesive layer which is disposed between said sensing elements. a sensor support; a first acoustic sensing element at least partially supported by the sensor support and configured to output a first signal responsive to acoustic vibrations; and a second acoustic sensing element at least partially supported by the sensor support and configured to output a second signal responsive to acoustic vibrations; wherein the first and second acoustic sensing elements are configured to provide the first and second signals to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals, characterized in that the first and second acoustic sensing elements are adhesively coupled to one another by an adhesive layer which is disposed between said sensing elements.
A facial direction detecting apparatus comprising: a facial end detecting unit for detecting facial ends (E1, E2) of a person from images of the person (hereinafter referred to as "personal images ") captured by an image capturing unit; a head rotational axis calculating unit for calculating an axis of rotation of the head of the person based on the ends (E1, E2) detected by the facial end detecting unit from the personal images, using a cylinder method; a characteristic portion extracting unit for extracting multiple characteristic portions (120, 122, 124, 126, 128) having a predetermined size from the personal images; a nostril extracting unit for extracting the nostrils of the person from among the multiple characteristic portions (120, 122, 124, 126, 128) extracted by the characteristic portion extracting unit and a vertical center line defined by the positions of the nostrils; and a facial direction detecting unit for detecting a facial direction (θ) toward the left or right of the person corresponding to the vertical center line extracted by the nostril extracting unit and the axis of rotation of the head calculated by the head rotational axis calculating unit, characterized in that the nostril extracting unit extracts characteristic portions detected to have the greatest movement amount as the nostrils, wherein the movement amounts are defined as a difference in left and right directions of the multiple characteristic points in at least two frames of personal images. a facial end detecting unit for detecting facial ends (E1, E2) of a person from images of the person (hereinafter referred to as "personal images ") captured by an image capturing unit; a head rotational axis calculating unit for calculating an axis of rotation of the head of the person based on the ends (E1, E2) detected by the facial end detecting unit from the personal images, using a cylinder method; a characteristic portion extracting unit for extracting multiple characteristic portions (120, 122, 124, 126, 128) having a predetermined size from the personal images; a nostril extracting unit for extracting the nostrils of the person from among the multiple characteristic portions (120, 122, 124, 126, 128) extracted by the characteristic portion extracting unit and a vertical center line defined by the positions of the nostrils; and a facial direction detecting unit for detecting a facial direction (θ) toward the left or right of the person corresponding to the vertical center line extracted by the nostril extracting unit and the axis of rotation of the head calculated by the head rotational axis calculating unit, characterized in that the nostril extracting unit extracts characteristic portions detected to have the greatest movement amount as the nostrils, wherein the movement amounts are defined as a difference in left and right directions of the multiple characteristic points in at least two frames of personal images.
A grinding cavity body of multiple vibration sources, comprising an abrasive slurry; a cavity body (11, 21), configured to contain the abrasive slurry; and a plurality of ultrasonic vibration sources, with vibration frequencies and amplitudes that can be adjusted during a grinding process, disposed on a bottom of the cavity body (11, 21), characterized in that the plurality of ultrasonic vibration sources are classified as at least a strong ultrasonic vibration source (121, 221) and weak ultrasonic vibration sources (122, 222) according to vibration frequencies, and the weak ultrasonic vibration sources (122, 222) are disposed farther from a center or a middle of the bottom of the cavity body (11, 21) than the at least a strong ultrasonic vibration source (121, 221); wherein the at least a strong ultrasonic vibration source (121, 221) and the plurality of weak ultrasonic vibration sources (122, 222) respectively generate ultrasonic vibrations in two different frequencies to make the abrasive slurry flow upward from the bottom of the cavity body (11,21) and spread out from the center of the cavity body (11, 21); wherein the weak ultrasonic vibration sources have a lower vibration frequency than the at least a strong ultrasonic vibration source. a cavity body (11, 21), configured to contain the abrasive slurry; and a plurality of ultrasonic vibration sources, with vibration frequencies and amplitudes that can be adjusted during a grinding process, disposed on a bottom of the cavity body (11, 21), characterized in that the plurality of ultrasonic vibration sources are classified as at least a strong ultrasonic vibration source (121, 221) and weak ultrasonic vibration sources (122, 222) according to vibration frequencies, and the weak ultrasonic vibration sources (122, 222) are disposed farther from a center or a middle of the bottom of the cavity body (11, 21) than the at least a strong ultrasonic vibration source (121, 221); wherein the at least a strong ultrasonic vibration source (121, 221) and the plurality of weak ultrasonic vibration sources (122, 222) respectively generate ultrasonic vibrations in two different frequencies to make the abrasive slurry flow upward from the bottom of the cavity body (11,21) and spread out from the center of the cavity body (11, 21); wherein the weak ultrasonic vibration sources have a lower vibration frequency than the at least a strong ultrasonic vibration source.