mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a User Equipment, UE, in a wireless communication system, the method comprising: transmitting a random access preamble, RAP, on a physical random access channel, PRACH, resource in a radio frame; calculating a random access-radio network temporary identifier, RA-RNTI based on equation A herein below: RA-RNTI = 1 + t _ id + 10 ∗ f _ id + 60 ∗ SFN _ id mod Wmax / 10 wherein, - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and monitoring a physical downlink control channel, PDCCH, identified by the calculated RA-RNTI for random access response, RAR, reception during a RAR window. transmitting a random access preamble, RAP, on a physical random access channel, PRACH, resource in a radio frame; calculating a random access-radio network temporary identifier, RA-RNTI based on equation A herein below: RA-RNTI = 1 + t _ id + 10 ∗ f _ id + 60 ∗ SFN _ id mod Wmax / 10 wherein, - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and monitoring a physical downlink control channel, PDCCH, identified by the calculated RA-RNTI for random access response, RAR, reception during a RAR window.
A process for producing at least one ply of a paperboard product which process comprises the steps of: - subjecting cellulosic fibers to heat treatment wherein the fibers are treated at a dry content of above 95% by weight and at a temperature of between 160-230 °C, preparing a slurry comprising said heat treated fibers wherein the slurry comprises above 50% by weight of heat treated fibers, - forming a web of said slurry and, - dewatering said web whereby a ply of said product is formed. - subjecting cellulosic fibers to heat treatment wherein the fibers are treated at a dry content of above 95% by weight and at a temperature of between 160-230 °C, preparing a slurry comprising said heat treated fibers wherein the slurry comprises above 50% by weight of heat treated fibers, - forming a web of said slurry and, - dewatering said web whereby a ply of said product is formed.
A shredder comprising: a shredder housing having an opening; a chip box comprising a restrictor with a pipe-like portion leading to said opening of the shredder housing; a feed screw configured to push items to be shredded and compacted towards said opening of the shredder housing via said restrictor; a cutter housing having internal spiral grooves, wherein a miller screw is housed in said cutter housing and driven by a drive motor, and wherein a cutter plate is fastened to said cutter housing; and a press chamber configured to receive shredded items; said miller screw being configured to shred items to be shredded into the acquired size against said cutter plate, and to force the shredded items into said press chamber; said cutter housing being able to be rotated and reject solid slugs; and said chip box being able to be flipped up for easy cleaning access when changing alloys to be pressed. a shredder housing having an opening; a chip box comprising a restrictor with a pipe-like portion leading to said opening of the shredder housing; a feed screw configured to push items to be shredded and compacted towards said opening of the shredder housing via said restrictor; a cutter housing having internal spiral grooves, wherein a miller screw is housed in said cutter housing and driven by a drive motor, and wherein a cutter plate is fastened to said cutter housing; and a press chamber configured to receive shredded items; said miller screw being configured to shred items to be shredded into the acquired size against said cutter plate, and to force the shredded items into said press chamber; said cutter housing being able to be rotated and reject solid slugs; and said chip box being able to be flipped up for easy cleaning access when changing alloys to be pressed.
Method for controlling at least one device integrated in a building automation system with a control device comprising the steps: - Selection and/or calling of a media file by a user, - Analysis of the media file and extraction of information relevant for the control from the media file by evaluating audio data and/or video data and/or text data of the media file, - sending control commands to the at least one device on the basis of the information extracted from the media file. - Selection and/or calling of a media file by a user, - Analysis of the media file and extraction of information relevant for the control from the media file by evaluating audio data and/or video data and/or text data of the media file, - sending control commands to the at least one device on the basis of the information extracted from the media file.
Torque transmission device, in particular for a motor vehicle, comprising a triple wet clutch and a gearbox casing having a first side wall, a second side wall and an axial portion connecting the two side walls (27a, 27b), said triple wet clutch comprising: - a torque input element, rotating about an axis X, that is able to be rotationally coupled to a crankshaft of a combustion engine, - a first and a second torque output element (6, 7) that are able to be rotationally coupled to a first input shaft and a second input shaft, respectively, of a gearbox, - a first and a second output clutch (E1, E2) that are arranged between the torque input element and the torque output elements (6, 7) in the direction of torque transmission, - an oil supply hub comprising a cylindrical portion, a flange that extends radially from the cylindrical portion, a drive cover and a support that extends radially from the drive cover in the direction of the torque input element, - a decoupling clutch that selectively and frictionally couples the torque input element and the drive cover, the device also comprising a first space defined by the first side wall of the casing and the support and a second space defined by the flange and the second side wall of the casing, said spaces (80, 80') being able to receive a rolling member for axially immobilizing the triple clutch in the gearbox casing, characterized in that the decoupling clutch, the first output clutch and the second output clutch are stacked and aligned radially. - a torque input element, rotating about an axis X, that is able to be rotationally coupled to a crankshaft of a combustion engine, - a first and a second torque output element (6, 7) that are able to be rotationally coupled to a first input shaft and a second input shaft, respectively, of a gearbox, - a first and a second output clutch (E1, E2) that are arranged between the torque input element and the torque output elements (6, 7) in the direction of torque transmission, - an oil supply hub comprising a cylindrical portion, a flange that extends radially from the cylindrical portion, a drive cover and a support that extends radially from the drive cover in the direction of the torque input element, - a decoupling clutch that selectively and frictionally couples the torque input element and the drive cover, the device also comprising a first space defined by the first side wall of the casing and the support and a second space defined by the flange and the second side wall of the casing, said spaces (80, 80') being able to receive a rolling member for axially immobilizing the triple clutch in the gearbox casing, characterized in that the decoupling clutch, the first output clutch and the second output clutch are stacked and aligned radially.
A ventilation system for ventilating a patient comprising a pressure driver, the pressure driver comprising: a gas source; a patient pressure sensor disposed at a patient interface device and operative to measure pressure at the patient; and an inspiration flow control valve interposed between the gas source and the patient interface device and being operative to open and close in response to patient pressure measurements; the ventilation system being characterized in that it further comprises an exhalation system interconnecting the patient to the gas source and being arranged in parallel with the inspiration flow control valve, the exhalation system being operative to vent exhalation gases from the patient, wherein the exhalation system includes an exhalation valve and an expiratory check valve interconnecting the exhalation valve to the patient, the exhalation valve configured to vent exhalation gases from the patient; wherein the exhalation system includes a proportional solenoid valve interposed between the pressure driver and the patient interface device, and a drive venturi interposed between the proportional solenoid valve and the exhalation valve, the drive venturi being operative to facilitate the flow of gas, wherein the flow control valve provides a regulated flow of pressurized gas to the drive venturi for removal of a gas source; a patient pressure sensor disposed at a patient interface device and operative to measure pressure at the patient; and an inspiration flow control valve interposed between the gas source and the patient interface device and being operative to open and close in response to patient pressure measurements; the ventilation system being characterized in that it further comprises an exhalation system interconnecting the patient to the gas source and being arranged in parallel with the inspiration flow control valve, the exhalation system being operative to vent exhalation gases from the patient, wherein the exhalation system includes an exhalation valve and an expiratory check valve interconnecting the exhalation valve to the patient, the exhalation valve configured to vent exhalation gases from the patient; wherein the exhalation system includes a proportional solenoid valve interposed between the pressure driver and the patient interface device, and a drive venturi interposed between the proportional solenoid valve and the exhalation valve, the drive venturi being operative to facilitate the flow of gas, wherein the flow control valve provides a regulated flow of pressurized gas to the drive venturi for removal of
Process for the preparation of enteric microparticles comprising nanoparticles, wherein the nanoparticles comprise a matrix and an active ingredient, such process comprises (i) spray-drying of a suspension of the nanoparticles in a colloidal dispersion of the enteric coating material or (ii) co-spray-drying of a suspension of nanoparticles and a colloidal dispersion of the enteric coating material.
A modal attenuator for reducing noise in a process system having fluid flowing through a pipe, the modal attenuator comprising: an attenuator body (112, 212) having a lead-in portion and a outlet joined by a connection segment; a screen body (134, 234) disposed within the attenuator body (112, 212) and spaced apart from the attenuator body (112, 212) to form an annular space (182, 282); and a plurality of rings (180, 280) disposed between the screen body (134, 234) and the attenuator body (112, 212); wherein sound waves pass through the screen body (134, 234) and are reflected back by the plurality of rings (180, 280) to disrupt other sound waves, thereby reducing noise in the modal attenuator, characterized in that at least two of the rings (180, 280) in the plurality of rings have different annular thicknesses, thereby creating an annular space (182, 282) between the rings (180, 280) and the screen body (134, 234), the annular space (182, 282) increasing in size from one end of the screen body (134, 234) proximate the lead-in portion until reaching a middle of the attenuator body (112, 212) and then decreasing in size from the middle of the attenuator body (112, 212) towards the outlet. an attenuator body (112, 212) having a lead-in portion and a outlet joined by a connection segment; a screen body (134, 234) disposed within the attenuator body (112, 212) and spaced apart from the attenuator body (112, 212) to form an annular space (182, 282); and a plurality of rings (180, 280) disposed between the screen body (134, 234) and the attenuator body (112, 212); wherein sound waves pass through the screen body (134, 234) and are reflected back by the plurality of rings (180, 280) to disrupt other sound waves, thereby reducing noise in the modal attenuator, characterized in that at least two of the rings (180, 280) in the plurality of rings have different annular thicknesses, thereby creating an annular space (182, 282) between the rings (180, 280) and the screen body (134, 234), the annular space (182, 282) increasing in size from one end of the screen body (134, 234) proximate the lead-in portion until reaching a middle of the attenuator body (112, 212) and then decreasing in size from the middle of the attenuator body (112, 212) towards the outlet.
A method for dialogue enhancement of an audio signal, comprising: receiving an encoded bit stream including the audio signal, obtaining a set of time-varying parameters (a) configured to estimate a dialogue component present in said audio signal, estimating said dialogue component from said audio signal, applying a compressor only to said estimated dialogue component, to generate a processed dialogue component, applying a user-determined gain (g) to the processed dialogue component, to provide an enhanced dialogue component, and combining said enhanced dialogue component with said audio signal to form a dialogue-enhanced audio signal, wherein combining the enhanced dialogue component with the audio signal includes forming a non-dialogue component by subtracting the estimated dialogue component from the audio signal, and summing said non-dialogue component with said enhanced dialogue component. receiving an encoded bit stream including the audio signal, obtaining a set of time-varying parameters (a) configured to estimate a dialogue component present in said audio signal, estimating said dialogue component from said audio signal, applying a compressor only to said estimated dialogue component, to generate a processed dialogue component, applying a user-determined gain (g) to the processed dialogue component, to provide an enhanced dialogue component, and combining said enhanced dialogue component with said audio signal to form a dialogue-enhanced audio signal, wherein combining the enhanced dialogue component with the audio signal includes forming a non-dialogue component by subtracting the estimated dialogue component from the audio signal, and summing said non-dialogue component with said enhanced dialogue component.
Device (110; 302; 402; 502; 602) to interact without contact, via at least one control object, with an electronic and/or computerized user device (100; 300; 400; 500; 600) comprising at least a first and a second parts (102, 104) which, in use, form with one another a non-zero angle, said device (110; 302; 402; 502; 602) comprising: - at least a first detection means (112; 114) by capacitive technology, and without contact, of the said at least one control object relative to a first control surface (118; 122) defined in relation to said first part (102; 104) of said user device (100; 300; 400; 500; 600), said first detection means comprising a plurality of measurement capacitive electrodes; - at least one of the said measurement capacitive electrodes being guarded by a first guard means (130; 132) at an alternative guard potential, different from a ground potential of the said at least one control object and substantially identical to the potential of the said measurement electrode; characterized in that the second part is configured to create interference with one or more of the measurement electrodes of the first part, and the device further comprises at least one second guard means (132; 130) to guard to said guard potential, at least partially, the said second part (104; 102) of the said user device (100; 300; 400; 500; 600) to reduce the interferences created by the second part. - at least a first detection means (112; 114) by capacitive technology, and without contact, of the said at least one control object relative to a first control surface (118; 122) defined in relation to said first part (102; 104) of said user device (100; 300; 400; 500; 600), said first detection means comprising a plurality of measurement capacitive electrodes; - at least one of the said measurement capacitive electrodes being guarded by a first guard means (130; 132) at an alternative guard potential, different from a ground potential of the said at least one control object and substantially identical to the potential of the said measurement electrode;
Arrangement having a container for receiving rectangular single sheets, in particular banknotes, and having a single sheet handling device for inputting and for dispensing the single sheets into or out of the container, wherein the single sheet handling device comprises: a feeding apparatus (14a to 14d, 30, 200, 252, 270, 350) which comprises feeding elements for the sheet-by-sheet feeding of single sheets and for the depositing of said single sheets in a stack of single sheets in the container (12a to 12d), and a separating apparatus (14a to 14d, 30, 200, 252, 270, 350) which comprises separating elements for the sheet-by-sheet removal of single sheets of the stack from the container (12a to 12d), wherein the feeding elements and the separating elements are arranged separately from the container (12a to 12d), wherein at least one separating element has at least one separating wheel (32, 208, 210), wherein the feeding apparatus has, as feeding element, at least one at least single-vane impeller, wherein the feeding apparatus comprises at least one drive unit for driving the at least one impeller, characterized in that the drive unit rotates the impeller during the feeding of a further single sheet in such a manner that the vane (58, 60) presses against the end side of a stack of single sheets located in a single sheet receiving region of the container (12a to 12d) and presses at least a portion of said single sheets at least temporarily into the single sheet receiving region of the container (12a to 12d) and produces a free feeding region for the positioning of the further single sheet in front of the end side of the stack. a feeding apparatus (14a to 14d, 30, 200, 252, 270, 350) which comprises feeding elements for the sheet-by-sheet feeding of single sheets and for the depositing of said single sheets in a stack of single sheets in the container (12a to 12d), and a separating apparatus (14a to 14d, 30, 200, 252, 270, 350) which comprises separating elements for the sheet-by-sheet removal of single sheets of the stack from the container (12a to 12d), wherein the feeding elements and the separating elements are arranged separately from the container (12a to 12d), wherein at least one separating element has at least one separating wheel (32, 208, 210), wherein the feeding apparatus has, as feeding element, at least one at least single-vane impeller, wherein the feeding apparatus comprises at least one drive unit for driving the at least one impeller, characterized in that the drive unit rotates the impeller during the feeding of a further single sheet in such a manner that the vane (58, 60) presses against the end side of a stack of single sheets located in a single sheet receiving region of the container (12a to 12d) and presses at least a portion of said single sheets at least temporarily into the single sheet receiving region of the container (12a to 12d) and produces a free feeding region for the positioning of the further single sheet in front of the end side of the stack.
A vehicle control device (101, 102) configured to transfer data having a low priority through a first communication path and data having a high priority through a second communication path, the second communication path configured to have a transfer speed different from a transfer speed of the first communication path, wherein the vehicle control device (101, 102) is configured to transfer first transfer data on the first communication path and second transfer data on the second communication path, wherein the first transfer data has a data size different from a data size of the second transfer data, wherein the second communication path is configured to allow at least two types of transfer data to be transmitted and received thereon, and characterized in that the vehicle control device (101, 102) is configured to divide the first transfer data and to transfer the divided first transfer data on the second communication path, and when this is the case, the vehicle control device (101, 102) is configured to transfer the first transfer data by controlling at least one of a division size, the number of divisions, or a transfer timing of the first transfer data based on a timing cycle for transferring the second transfer data, a vacant time having no transfer, and a transfer time of the first transfer data on the second communication path, wherein the vehicle control device (101, 102) is configured to transfer information for identifying a type of data and information for identifying the number of divisions and a size of the data only initially before the divided data as most prioritized data. wherein the vehicle control device (101, 102) is configured to transfer first transfer data on the first communication path and second transfer data on the second communication path, wherein the first transfer data has a data size different from a data size of the second transfer data, wherein the second communication path is configured to allow at least two types of transfer data to be transmitted and received thereon, and characterized in that the vehicle control device (101, 102) is configured to divide the first transfer data and to transfer the divided first transfer data on the second communication path, and when this is the case, the vehicle control device (101, 102) is configured to transfer the first transfer data by controlling at least one of a division size, the number of divisions, or a transfer timing of the first transfer data based on a timing cycle for transferring the second transfer data, a vacant time having no transfer, and a transfer time of the first transfer data on the second communication path, wherein the vehicle control device (101, 102) is configured to transfer information for identifying a type of data and information for identifying the number of divisions and a size of the data only initially before the divided data as most prioritized data.
A cooling apparatus for cooling the driver of a driver system, comprising: a device configured to move a cooling fluid for cooling the driver; a shroud disposed at least partially over the driver, the shroud comprising a plurality of inlet orifices and a plurality of outlet orifices in fluid communication with the device; and a plurality of fins extending at least partially between the shroud and the driver, and possibly also extending at least partially in the driver, or both, the plurality of fins being spaced apart and defining flowpaths therebetween, wherein the flowpaths communicate with the inlet orifices and the outlet orifices, and characterized by the plurality of inlet orifices comprising rows of orifices aligned with each of the flowpaths, wherein cross-sectional flowpath areas of the plurality of inlet orifices decrease proceeding in an axial direction toward the axial end wherein the plurality of outlet orifices are defined.