mhurhangee/ep-ind-claims huggingface dataset:
A method for dialogue enhancement of an audio signal, comprising: receiving (step S1) said audio signal and a text content associated with dialogue occurring in the audio signal, generating (step S2) parameterized synthesized speech ( ŝ) from said text content, and applying (step S3) dialogue enhancement to said audio signal based on said parameterized synthesized speech ( ŝ), wherein the text content includes annotations identifying a specific speaker, and wherein generation of the synthesized speech is aligned with a model of the identified speaker. receiving (step S1) said audio signal and a text content associated with dialogue occurring in the audio signal, generating (step S2) parameterized synthesized speech ( ŝ) from said text content, and applying (step S3) dialogue enhancement to said audio signal based on said parameterized synthesized speech ( ŝ), wherein the text content includes annotations identifying a specific speaker, and wherein generation of the synthesized speech is aligned with a model of the identified speaker.
Packaging comprising a container and insulating pads, both the container and said insulating pads being substantially composed of cellulose fibers, which insulating pads are placeable adjacent to inner walls of the container, wherein the insulating pads are embodied as one or more paper bags containing cellulose fibers that are embodied as flakes, characterized in that the paper of the paper bags has an air permeability in the range of 3 - 5 seconds Gurley.
A propulsion system comprising: one or more propulsors (30, 30B, 130) coupled to a mechanical shaft; an engine (25, 25A) configured to drive the mechanical shaft; a removable electric machine that, when coupled to the mechanical shaft, is configured to simultaneously drive the mechanical shaft in conjunction with the engine (25, 25A) or extract power from the engine; and a control unit configured to: in response to determining that the removable electric machine is coupled to the mechanical shaft, control the engine (25, 25A) and the removable electric machine to drive the mechanical shaft; and in response to determining that the removable electric machine is decoupled from the mechanical shaft, control only the engine (25, 25A) to drive the mechanical shaft. one or more propulsors (30, 30B, 130) coupled to a mechanical shaft; an engine (25, 25A) configured to drive the mechanical shaft; a removable electric machine that, when coupled to the mechanical shaft, is configured to simultaneously drive the mechanical shaft in conjunction with the engine (25, 25A) or extract power from the engine; and a control unit configured to: in response to determining that the removable electric machine is coupled to the mechanical shaft, control the engine (25, 25A) and the removable electric machine to drive the mechanical shaft; and in response to determining that the removable electric machine is decoupled from the mechanical shaft, control only the engine (25, 25A) to drive the mechanical shaft. in response to determining that the removable electric machine is coupled to the mechanical shaft, control the engine (25, 25A) and the removable electric machine to drive the mechanical shaft; and in response to determining that the removable electric machine is decoupled from the mechanical shaft, control only the engine (25, 25A) to drive the mechanical shaft.
A suspension body for an elevator, comprising: a core including a load bearing layer formed of an impregnation resin and a plurality of high-strength fibers (34,203); and a covering layer covering at least a part of an outer periphery of the core, wherein the core is divided into a plurality of core segments arranged apart from each other, wherein the covering layer enters a region between the core segments adj acent to each other, and characterised in that: a density of the high-strength fibers (34,102) in a center portion of each of the core segments in a thickness direction of each of the core segments is higher than a density of the high-strength fibers (34,102) in both end portions of each of the core segments in the thickness direction. a core including a load bearing layer formed of an impregnation resin and a plurality of high-strength fibers (34,203); and a covering layer covering at least a part of an outer periphery of the core, wherein the core is divided into a plurality of core segments arranged apart from each other, wherein the covering layer enters a region between the core segments adj acent to each other, and characterised in that: a density of the high-strength fibers (34,102) in a center portion of each of the core segments in a thickness direction of each of the core segments is higher than a density of the high-strength fibers (34,102) in both end portions of each of the core segments in the thickness direction.
A telescoping mast assembly having a plurality of telescoping tube sections (102, 103) configurable between a retracted position and an extended position, at least one of said telescoping tube sections being provided with an autolock assembly, said assembly comprising: a first latch pin mounted perpendicularly to a first tube section, the first latch pin being pre-loaded toward a locked position with a second tube section and configured to move linearly to an unlocked position with respect to the second tube section; a first latch lever mounted to the first latch pin, the first latch lever configured to pivot between a parallel position and a rotated position with respect to the first tube section; a guide plate mounted to a third tube section and an angled bearing surface disposed on an upper portion of the guide plate, the guide plate and angled bearing surface configured to contact the first latch lever; wherein the first latch pin is pre-loaded to move linearly into the locked position with the second tube section when the second tube section is in the extended position with respect to the first tube section, wherein the first latch pin moves linearly from the locked position to the unlocked position by the pivoting movement of the first latch lever and the first latch lever pivots from the parallel position to the rotated position by the contact with the angled bearing surface of the guide plate when the first tube section is in the retracted position with respect to the third tube section to thereby allow the retracted position of the second tube section with respect to the first tube section. a first latch pin mounted perpendicularly to a first tube section, the first latch pin being pre-loaded toward a locked position with a second tube section and configured to move linearly to an unlocked position with respect to the second tube section; a first latch lever mounted to the first latch pin, the first latch lever configured to pivot between a parallel position and a rotated position with respect to the first tube section; a guide plate mounted to a third tube section and an angled bearing surface disposed on an upper portion of the guide plate, the guide plate and angled bearing surface configured to contact the first latch lever; wherein the first latch pin is pre-loaded to move linearly into the locked position with the second tube section when the second tube section is in the extended position with respect to the first tube section, wherein the first latch pin moves linearly from the locked position to the unlocked position by the pivoting movement of the first latch lever and the first latch lever pivots from the parallel position to the rotated position by the contact with the angled bearing surface of the guide plate when the first tube section is in the retracted position with respect to the third tube section to thereby allow the retracted position of the second tube section with respect to the first tube section.
A multi-lumen applicator for delivering reduced pressure to a tissue site and receiving fluids, characterised by the multi-lumen applicator comprising: an applicator body having a distal end and a proximal end and formed with a first plurality of apertures proximate to the distal end for receiving fluid and a second plurality of apertures proximate the distal end for receiving fluid from the tissue site and for delivering reduced pressure; a first lumen fluidly coupled to the first plurality of apertures; a second lumen fluidly coupled to the second plurality of apertures; and a first plurality of activation members coupled to the second plurality of apertures, wherein the first plurality of activation members is operable to move from a closed position to an open position when activated to allow flow. an applicator body having a distal end and a proximal end and formed with a first plurality of apertures proximate to the distal end for receiving fluid and a second plurality of apertures proximate the distal end for receiving fluid from the tissue site and for delivering reduced pressure; a first lumen fluidly coupled to the first plurality of apertures; a second lumen fluidly coupled to the second plurality of apertures; and a first plurality of activation members coupled to the second plurality of apertures, wherein the first plurality of activation members is operable to move from a closed position to an open position when activated to allow flow.
Drive device for an all-wheel-drive two-track motor vehicle, in the drive train of which a drive assembly outputs permanently to a first vehicle axle and outputs to a second vehicle axle via a centre clutch during the driving operation, wherein in the closed state of the centre clutch the second vehicle axle is connected to the drive train and in the open state of the clutch the second vehicle axle is decoupled from the drive train, wherein in a driving situation with connected all-wheel drive and with axle frictional coefficients (μ VA, μ HA) of differing values acting between the vehicle wheels and the road surface, a greater wheel torque (M VA) can be applied to the vehicle axle with a large axle frictional coefficient (μ VA) than to the vehicle axle with a small axle frictional coefficient (μ HA), and wherein a control device is provided, which limits the drive assembly to a maximally allowable motor torque (M mot,max) in order to limit the motor torque, wherein the drive device is designed so that in order to prevent an axle overload of the vehicle axle with a large axle frictional coefficient (μ VA) a control device has an evaluation unit, with which the maximally allowable motor torque (M mot,max) can be determined and adapted, and that the maximally allowable motor torque (M mot,max) can be determined from an addition of a structurally specified overload threshold (M VA,Ü), which is stored in the evaluation unit, upon the reaching of which the risk of a component damage to the vehicle axle with a large axle frictional coefficient (μ VA) exists, with at least one maximally allowable potential moment of inertia component (M T, HA) on the vehicle axle with a small axle frictional coefficient (μ HA), which moment of inertia component (M T,HA) relieves the vehicle axle with a large axle frictional coefficient (μ VA), that the evaluation unit has a programming module, in which the maximally allowable moment of inertia component (M T, HA) on the vehicle axle with a small axle frictional coefficient (μ HA), which relieves the vehicle axle with a large axle frictional coefficient (μ VA), can be determined, and that the programming module has a first determination unit, in which a maximally applicable axle torque (M VA,absetz) on the vehicle axle with a large axle frictional coefficient (μ VA) can be determined, a subtraction unit, in which a maximally allowable potential moment of inertia (M T, VA) on the vehicle axle with a large axle frictional coefficient (μ VA), in which no axle overload exists, can be determined, wherein the determination of the moment of inertia (M T, VA) takes place by subtraction of the maximally applicable axle torque (M VA,absetz) from the overload threshold (M VA,Ü), and has a second determination unit in which by means of the maximally allowable moment of inertia (M T, VA) on the vehicle axle with a large axle frictional coefficient (μ VA) the moment of inertia component (M T, HA) on the vehicle axle with a small axle frictional coefficient (μ HA) can be determined.
Method for manufacturing a single-filament stent from a filament having a first end and having a second and free end, wherein a filament, starting from the first end, is wound spirally into windings onto a braiding core, which has a longitudinal axis between at least one first deflection in a proximal end region and at least one second deflection in a distal end region, and the filament is placed, alternately on a plurality of crossover points, into an upper viaduct over a winding and, at at least one further crossover point, is inserted into a lower viaduct under a winding, including the method steps for forming a lower viaduct: - applying a winding onto the braiding core until a crossover point is reached, - inserting into and piercing with the free end of the filament, in an insertion direction which extends essentially vertically to the longitudinal axis, a guide cutout of the braiding core, and - receiving and pulling the filament through the guide cutout characterized in that the free end of the filament is inserted, in an insertion direction which extends along a line arranged secantially in relation to the braiding core, through the guide cutout. - applying a winding onto the braiding core until a crossover point is reached, - inserting into and piercing with the free end of the filament, in an insertion direction which extends essentially vertically to the longitudinal axis, a guide cutout of the braiding core, and - receiving and pulling the filament through the guide cutout
A method of wireless communication of a base station, comprising: transmitting, on a plurality of anchor channels, information indicating a narrowband frequency hopping pattern to at least one user equipment, UE, the narrowband frequency hopping pattern including a plurality of frames, the plurality of frames including at least one non-anchor channel and the plurality of anchor channels, the at least one non-anchor channel in each of the plurality of frames includes M non-anchor channels within a wideband, the M non-anchor channels are grouped into M carriers across a plurality of frames, and each of the M carriers occupying a set of adjacent non-anchor channels in each of the plurality of frames; and communicating with the at least one UE using the narrowband frequency hopping pattern, wherein communication on the plurality of anchor channels occurs during the plurality of frames. transmitting, on a plurality of anchor channels, information indicating a narrowband frequency hopping pattern to at least one user equipment, UE, the narrowband frequency hopping pattern including a plurality of frames, the plurality of frames including at least one non-anchor channel and the plurality of anchor channels, the at least one non-anchor channel in each of the plurality of frames includes M non-anchor channels within a wideband, the M non-anchor channels are grouped into M carriers across a plurality of frames, and each of the M carriers occupying a set of adjacent non-anchor channels in each of the plurality of frames; and communicating with the at least one UE using the narrowband frequency hopping pattern, wherein communication on the plurality of anchor channels occurs during the plurality of frames.
A method comprising: determining an event; determining a first haptic effect based at least in part on the event; determining a second haptic effect based at least in part on the event; transmitting a first haptic signal associated with the first haptic effect to a first haptic output device, wherein the first haptic output device is configured to receive the first haptic signal and output the first haptic effect to a deformable surface (116, 216, 316, 416, 502, 602, 702, 802, 1002, 1100, 1206); and transmitting a second haptic signal associated with the second haptic effect to a second haptic output device, wherein the second haptic output device is configured to receive the second haptic signal and output the second haptic effect to the deformable surface; wherein the method further comprises determining a composite haptic effect in response to the event, wherein the first and second haptic effects are configured, when combined, to output the composite haptic effect; characterized in that: the first haptic effect comprises a change in the coefficient of friction of the deformable surface (116, 216, 316, 416, 502, 602, 702, 802, 1002, 1100, 1206), and the second haptic effect comprises a change in the stiffness of the deformable surface (116, 216, 316, 416, 502, 602, 702, 802, 1002, 1100, 1206). determining an event; determining a first haptic effect based at least in part on the event; determining a second haptic effect based at least in part on the event; transmitting a first haptic signal associated with the first haptic effect to a first haptic output device, wherein the first haptic output device is configured to receive the first haptic signal and output the first haptic effect to a deformable surface (116, 216, 316, 416, 502, 602, 702, 802, 1002, 1100, 1206); and transmitting a second haptic signal associated with the second haptic effect to a second haptic output device, wherein the second haptic output device is configured to receive the second haptic signal and output the second haptic effect to the deformable surface;
A method for separating a suspension of biological cells using a system comprising a fluid circuit comprising a spinning membrane or a centrifuge as separator having a housing with an inlet for introducing the suspension of biological cells into the separator, a first outlet in communication with the separator for flowing a first type of cells from the separator and a second outlet in communication with separator for flowing a second type of cells from the separator, and a hardware component comprising a pump for flowing the suspension of biological cells to the inlet of the separator with no second pump being associated with either of the first and second outlets (32, 38), at least one flow control device (46, 48, 50) associated with the first outlet and the second outlet of the separator for selectively opening and closing the first and second outlets (32, 38) so as to permit one of the first type of cells and the second type of cells to flow out of the separator, and controlling the separator with a pulse width modulation to control the flow rate of the first type of cells out of the first outlet and the second type of cells out of the second outlet by the method comprising: a) operating the pump so as to flow the suspension of biological cells to the inlet of the separator at a predetermined inlet flow rate; and b) alternately opening and closing the flow control device (46, 48, 50) with the first outlet being opened and closed in opposition to the second outlet in accordance with a predetermined duty cycle so that the pump controls flow to the inlet and pulse width modulation controls flow out of the first and second outlets (32, 38), wherein the duty cycle that determines the outlet flow rates through both the first and second outlet lines is defined by modulation of the ratio of time that the first outlet line is open to the time that the first outlet line is closed. a) operating the pump so as to flow the suspension of biological cells to the inlet of the separator at a predetermined inlet flow rate; and b) alternately opening and closing the flow control device (46, 48, 50) with the first outlet being opened and closed in opposition to the second outlet in accordance with a predetermined duty cycle so that the pump controls flow to the inlet and pulse width modulation controls flow out of the first and second outlets (32, 38),
Cyclone separator for separating solids and/or liquids from a process stream, comprising: a process chamber which is round in cross-section and is formed by at least one circumferential wall and a cover; an inlet port penetrating the circumferential wall for introducing the process stream into the process chamber in the circumferential direction of the process chamber; an outlet port penetrating the cover for leading the process stream out of the process chamber in the axial direction of the process chamber; an immersion tube extending from the outlet port in the axial direction into the process chamber; and a guide means (11.1, 11.2, 11.3, 11.4) extending in the center of the process chamber in the axial direction and engaging in the immersion tube; characterized in that the guide means (11.1, 11.2, 11.3, 11.4) is formed variable in cross-section over at least a part of its axial extension. a process chamber which is round in cross-section and is formed by at least one circumferential wall and a cover; an inlet port penetrating the circumferential wall for introducing the process stream into the process chamber in the circumferential direction of the process chamber; an outlet port penetrating the cover for leading the process stream out of the process chamber in the axial direction of the process chamber; an immersion tube extending from the outlet port in the axial direction into the process chamber; and a guide means (11.1, 11.2, 11.3, 11.4) extending in the center of the process chamber in the axial direction and engaging in the immersion tube; characterized in that the guide means (11.1, 11.2, 11.3, 11.4) is formed variable in cross-section over at least a part of its axial extension.
On board charger for electric vehicles, the on board charger having an AC input and a DC power output and comprising a housing that contains a power electronic circuit, a control electronic circuit, capacitors, inverters, at least one transformer, at least one input inductor and at least one output inductor inside to allow the conversion of input AC power into output DC power, the base of the housing incorporating a cooling circuit, characterized in that the at least one transformer, the at least one input inductor and the at least one output inductor are arranged in a shared common volume within a compartment delimited by several side walls and the base of the housing of the on board charger and at least one internal wall, such that the compartment is at least partially filled with potting which at least partially covers the at least one transformer, the at least one input inductor and the at least one output inductor, these three elements constituting one magnetic block, and being separated by the at least one internal wall from the other components placed inside the on board charger.