mhurhangee/ep-ind-claims huggingface dataset:
A method of effecting spatial and temporal control of the vibrations of a panel by means of a plurality of driver elements attached to the panel, comprising: receiving a shape function defining an intended spatial distribution of the vibrations of the panel, and an audio signal; determining, using a frequency domain plate-bending mode response model of the panel, a band-limited Fourier series representation of the shape function, yielding corresponding mode shapes and modal amplitudes; computing one or more modal accelerations from the audio signal and the modal amplitudes; computing, using the frequency domain plate-bending mode response model, one or more modal forces that produce the one or more modal accelerations; determining a discrete-time filter corresponding to the mode shapes of the frequency domain plate-bending mode response model; determining one or more discrete-time domain modal forces as a product of the discrete-time filter and the computed modal accelerations; summing a product of the one or more discrete-time domain modal forces and corresponding mode shapes at driver locations to determine a force required at each driver element of the plurality of driver elements; performing a multichannel digital to analog conversion and amplification of the force required at each driver element in the plurality of driver elements to determine forces to be applied by each driver element (230, 240); and driving the plurality of driver elements to yield the determined forces. receiving a shape function defining an intended spatial distribution of the vibrations of the panel, and an audio signal; determining, using a frequency domain plate-bending mode response model of the panel, a band-limited Fourier series representation of the shape function, yielding corresponding mode shapes and modal amplitudes; computing one or more modal accelerations from the audio signal and the modal amplitudes; computing, using the frequency domain plate-bending mode response model, one or more modal forces that produce the one or more modal accelerations; determining a discrete-time filter corresponding to the mode shapes of the frequency domain plate-bending mode response model; determining one or more discrete-time domain modal forces as a product of the discrete-time filter and the computed modal accelerations; summing a product of the one or more discrete-time domain modal forces and corresponding mode shapes at driver locations to determine a force required at each driver element of the plurality of driver elements; performing a multichannel digital to analog conversion and amplification of the force required at each driver element in the plurality of driver elements to determine forces to be applied by each driver element (230, 240); and driving the plurality of driver elements to yield the determined forces.
A method of transmitting uncompressed video data, the method comprising: selectively error control encoding data in two or more subpackets of uncompressed video data, audio data or control data using one or more error coding schemes selected from a plurality of error coding schemes; selectively mapping the data in each of the subpackets to symbols using one or more modulation schemes selected from a plurality of modulation schemes; combining the subpackets to form a composite packet; transmitting the composite packet on a high rate channel; and receiving a composite packet of acknowledgements comprising acknowledgement of each of the subpackets and one preamble on a low rate channel, characterised in that the composite packet further comprising a first cyclic redundancy check based on most significant bits and a second cyclic redundancy check based on least significant bits. selectively error control encoding data in two or more subpackets of uncompressed video data, audio data or control data using one or more error coding schemes selected from a plurality of error coding schemes; selectively mapping the data in each of the subpackets to symbols using one or more modulation schemes selected from a plurality of modulation schemes; combining the subpackets to form a composite packet; transmitting the composite packet on a high rate channel; and receiving a composite packet of acknowledgements comprising acknowledgement of each of the subpackets and one preamble on a low rate channel, characterised in that the composite packet further comprising a first cyclic redundancy check based on most significant bits and a second cyclic redundancy check based on least significant bits.
A method for determining a location of a client device in a wireless network including the client device and at least three network devices, each of the three network devices having a known location, the method comprising: - pairwise exchanging messages between at least three different pairs of network devices of said at least three network devices, wherein in a pairwise message exchange a first network device transmits a first message and a second network device receives the first message transmitted from the first network device and transmits a second message to the first network device, said second message including a time difference information of the time difference between reception of a message and subsequent transmission of a message by the second network device, and - determining the location of the client device from the known locations of the network devices of the at least three different pairs of network devices, the time difference information carried in pairwise exchanged messages between said at least three different pairs of network devices and times of reception of the pairwise exchanged messages by the client device, wherein in a pairwise message exchange the first network device receives the second message transmitted from the second network device and transmits a third message to the second network device, said third message including a second time difference information of the time difference between reception of a message and subsequent transmission of a message by the first network device. - pairwise exchanging messages between at least three different pairs of network devices of said at least three network devices, wherein in a pairwise message exchange a first network device transmits a first message and a second network device receives the first message transmitted from the first network device and transmits a second message to the first network device, said second message including a time difference information of the time difference between reception of a message and subsequent transmission of a message by the second network device, and - determining the location of the client device from the known locations of the network devices of the at least three different pairs of network devices, the time difference information carried in pairwise exchanged messages between said at least three different pairs of network devices and times of reception of the pairwise exchanged messages by the client device,
An adjustable hose support for milker unit hoses, the adjustable hose support comprising: a frame; a support arm pivotably joined to the frame for movement between a milking position and a parked position; a stationary jaw joined to the frame; and a hose support member, characterized in that the hose support member is flexible and has a plurality of releasably engageable positions engaged with the stationary jaw when the support arm is in the milking position and disengaged from the stationary jaw when the support arm is in the parked position. a frame; a support arm pivotably joined to the frame for movement between a milking position and a parked position; a stationary jaw joined to the frame; and a hose support member, characterized in that the hose support member is flexible and has a plurality of releasably engageable positions engaged with the stationary jaw when the support arm is in the milking position and disengaged from the stationary jaw when the support arm is in the parked position.
Latent heat accumulator comprising a storage container for receiving a phase-change material and a device for initiating crystallisation in the phase-change material, the device for initiating crystallisation comprising a first Peltier element and a second Peltier element, which are arranged so as to be spaced apart from one another, thus forming a gap for receiving the phase-change material, characterised in that at least one metal body is arranged in the gap between the first and second Peltier element (14, 15) so as to form channels in the gap, which metal body is in thermal contact with the first and second Peltier element (14, 15).
Magnet-based measuring system for determining a movement (100, 200) and/or an angular position of a component of a machine, comprising - a component supported for rotation about a rotary axis, - an exciter unit fixed for rotation with the component, by which unit a magnetic field can be generated, and - a stationary sensor unit which functionally cooperates with the exciter unit for determining a movement (100, 200) and/or an angular position of the component and which is designed as a 3D Hall sensor for the spatial determination of the magnetic field, said sensor being arranged radially offset with respect to the rotary axis, characterized in that the sensor unit and the exciter unit are arranged offset with respect to each other along the rotary axis, and the sensor unit is arranged at a defined radial distance from the exciter unit. - a component supported for rotation about a rotary axis, - an exciter unit fixed for rotation with the component, by which unit a magnetic field can be generated, and - a stationary sensor unit which functionally cooperates with the exciter unit for determining a movement (100, 200) and/or an angular position of the component and which is designed as a 3D Hall sensor for the spatial determination of the magnetic field, said sensor being arranged radially offset with respect to the rotary axis,
A vapor-permeable insert (14, 114, 214, 314) for an item of clothing or accessory, characterized in that it comprises a collector element (16, 116) adapted to absorb solar radiation, a window element (15, 115, 215, 315) that is transparent to the solar radiation absorbed by the collector element, and an airspace formed between said window element (15, 115, 215, 315) and said collector element (16, 116), said collector element (16, 116) and said window element (15, 115, 215, 315) being arranged at two opposite faces of said airspace.
Cable connection component for electrically connecting a shielded multi-core cable, comprising a union nut having an internal thread, comprising a splice part made of insulating material and having a plurality of notches for separating the wires of the cable, and comprising a shielding element for contacting the shielding of the cable, wherein, when the union nut is screwed onto an electrically conductive connecting body provided with an external thread corresponding to the internal thread, the wire insulation of the wire ends inserted into the splice part is separated from insulation displacement terminals arranged in the connecting body and penetrating into the notches in the splice part and the conductors of the wires are contacted, wherein the splice part has a cable-holder part and a wire-guiding part, wherein the cable-holder part has a plurality of latching arms on the side facing the wire-guiding part, and the wire-guiding part has a plurality of inwardly projecting latching catches corresponding to the latching arms on the side facing the cable-holder part, wherein the shielding element has an annular central section, a plurality of inner spring arms extending from the central section in the direction of the side facing the wire-guiding part, and a plurality of outer spring arms extending from the central section in the direction of the side located away from the wire-guiding part, wherein the inner spring arms are bent inwards in the direction of the longitudinal axis of the cable connection component in such a way that the ends of the inner spring arms contact the shielding of a connected cable and wherein the outer spring arms are bent outwards from the longitudinal axis of the cable connection component in such a way that the outer spring arms extend between the cable-holder part and the wire-guiding part, such that the ends of the outer spring arms project out of the splice part.
A method for adjusting the torque of a mass and gyro rotator in a wave power plant, said method comprising compensating partially or completely the torque of a rotator, which rotates around a vertical shaft, with a compensating moment which is produced by an electric machine, said method comprising measuring acceleration components ( ACC x and ACC y) for a given point of the wave power plant's floating body in directions perpendicular to each other as projected onto the rotator's plane of rotation, establishing a vector (V xy) with a magnitude and direction (α ACC) for the measured acceleration components, monitoring the direction or angular position (α) of a rotator and determining its lag (α LAG) from the direction (α ACC) of the acceleration components' vector, and adjusting the compensating moment as dependent on a compensation factor whose sub-factors are the magnitude of the vector (V xy) of the acceleration components of the body and the sine of the angle of lag (sin α LAG), characterized in that the method comprises adjusting the compensating moment not only as dependent on the compensation factor but also as dependent on a compensation factor (B AV) based on spinning wheel forces, therefore comprising - using an inertial sensor to measure a rotation speed (AVx-y) of inclination; - establishing a resultant of x and y directed angular velocities (AVx and AVy) of the rotation speed; - calculating an angular deviation (LAGgyro) between the resultant angular velocity and the rotator's direction (α); - measuring the rotation speed of a spinning wheel; - establishing the spinning wheel section's compensation factor (B AV), based on spinning wheel forces, as a product whose factors are a spinning wheel rotation speed (ω s), the resultant of the x and y directed angular velocities of the body's inclination, and the sine of the aforesaid angular deviation (LAGgyro); and determining a compensating moment for the spinning wheel section by multiplying the spinning wheel section's compensation factor (B AV) with an inertia of the spinning wheel. - using an inertial sensor to measure a rotation speed (AVx-y) of inclination; - establishing a resultant of x and y directed angular velocities (AVx and AVy) of the rotation speed; - calculating an angular deviation (LAGgyro) between the resultant angular velocity and the rotator's direction (α); - measuring the rotation speed of a spinning wheel; - establishing the spinning wheel section's compensation factor (B AV), based on spinning wheel forces, as a product whose factors are a spinning wheel rotation speed (ω s), the resultant of the x and y directed angular velocities of the body's inclination, and the sine of the aforesaid angular deviation (LAGgyro); and determining a compensating moment for the spinning wheel section by multiplying the spinning wheel section's compensation factor (B AV) with an inertia of the spinning wheel.
A process for the preparation of Tenofovir of formula I, comprising: a) reacting 9-[2- -(hydroxy)propyl] adenine of formula III with di-Alk-p-toluene sulfonyloxy methyl phosphonate in presence of a base and a metal salt represented by the formula MX 2, wherein the 'M' represents a divalent metal cation and 'X' represents halide, acetate, or trifluoromethane sulfonate, in an organic solvent to obtain -9-[2-(di-Alk-phosphono methoxy) propyl] adenine of formula II; wherein "Alk" represents C 1-4 alkyl; b) dealkylating the resulting compound of formula II with a dealkylating agent to obtain tenofovir. a) reacting 9-[2- -(hydroxy)propyl] adenine of formula III with di-Alk-p-toluene sulfonyloxy methyl phosphonate in presence of a base and a metal salt represented by the formula MX 2, wherein the 'M' represents a divalent metal cation and 'X' represents halide, acetate, or trifluoromethane sulfonate, in an organic solvent to obtain -9-[2-(di-Alk-phosphono methoxy) propyl] adenine of formula II; wherein "Alk" represents C 1-4 alkyl; b) dealkylating the resulting compound of formula II with a dealkylating agent to obtain tenofovir.
A particle vapor reactor comprising a reactor body with a fluid flow conduit having an inlet end and an outlet end, the cross-section of the conduit having a circular geometry at the inlet end, a rectangular geometry at a midsection and a circular geometry at its outlet end, characterized in that said circular geometry at the inlet end transitions from circular to obround, and wherein said circular geometry at the outlet end transitions from obround to circular, wherein the fluid flow conduit has a saturator section disposed towards the inlet end and a condenser section disposed towards the outlet end, and wherein the conduit is elongated and constructed of two lateral half portions (120A, 120B, 122A, 122B), the lateral half portions (120A, 120B, 122A, 122B) being joined along the longitudinal axis of the reactor. said circular geometry at the inlet end transitions from circular to obround, and wherein said circular geometry at the outlet end transitions from obround to circular, wherein the fluid flow conduit has a saturator section disposed towards the inlet end and a condenser section disposed towards the outlet end, and wherein the conduit is elongated and constructed of two lateral half portions (120A, 120B, 122A, 122B), the lateral half portions (120A, 120B, 122A, 122B) being joined along the longitudinal axis of the reactor.
A bed assembly comprising: a frame, a mattress supported by the frame, and a patient-care system including a support system and an elevation system (26, 226) insertable between the frame and the mattress, the elevation system and support system cooperating to move at least a portion of the mattress from a fully-lowered position, in which the mattress is arranged generally parallel to the frame, to a fully-raised position, in which the at least one movable section of the mattress is arranged at an angle relative to the frame, wherein the support system includes a top plate, a base plate, and a hinge positioned between a free end of the support system and a fixed end of the support system and the elevation system is coupled to the support system and configured to move the support system to raise the at least one movable section of the mattress in response to an activation of the elevation system, wherein the elevation system includes at least one pneumatic bladder positioned between the top plate and the base plate and at least one valve (248, 250) coupled to the at least one pneumatic bladder, and wherein the bladder has a sheet that defines an internal space and the elevation system further includes a foam insert positioned within the internal space of the bladder and the foam insert is configured to apply an outward force on the sheet to expand the bladder to the inflated state. a frame, a mattress supported by the frame, and a patient-care system including a support system and an elevation system (26, 226) insertable between the frame and the mattress, the elevation system and support system cooperating to move at least a portion of the mattress from a fully-lowered position, in which the mattress is arranged generally parallel to the frame, to a fully-raised position, in which the at least one movable section of the mattress is arranged at an angle relative to the frame, wherein the support system includes a top plate, a base plate, and a hinge positioned between a free end of the support system and a fixed end of the support system and the elevation system is coupled to the support system and configured to move the support system to raise the at least one movable section of the mattress in response to an activation of the elevation system, wherein the elevation system includes at least one pneumatic bladder positioned between the top plate and the base plate and at least one valve (248, 250) coupled to the at least one pneumatic bladder, and wherein the bladder has a sheet that defines an internal space and the elevation system further includes a foam insert positioned within the internal space of the bladder and the foam insert is configured to apply an outward force on the sheet to expand the bladder to the inflated state.
A method of resource selection performed by a user equipment, UE, the method comprising: setting a resource selection window; setting, a sensing window and monitoring slots by decoding a physical sidelink control channel, PSCCH, and measuring a reference signal received power, RSRP; setting a threshold; defining a set of a total number of resources based on the resource selection window; excluding any restricted resources from the total number of resources based on the sensing window, wherein the UE identifies the resources within the resource selection window that are reserved by neighboring UEs by decoding Sidelink Control Information, SCI, within the sensing window; excluding any occupied resources from the total number of resources based on the threshold; determining (221 - 225) if an initial number of remaining resources is greater than or equal to an initial percentage of the total number of resources; and at least one iteration including: increasing the threshold, when the initial number of remaining resources is less than the initial percentage of the total number of resources, and redetermining if a subsequent number of remaining resources is greater than or equal to a subsequent percentage of the total number of resources, wherein the subsequent percentage varies for each iteration, wherein a factor by which the subsequent percentage changes depends on a ratio between aperiodic and periodic traffic. setting a resource selection window; setting, a sensing window and monitoring slots by decoding a physical sidelink control channel, PSCCH, and measuring a reference signal received power, RSRP; setting a threshold; defining a set of a total number of resources based on the resource selection window; excluding any restricted resources from the total number of resources based on the sensing window, wherein the UE identifies the resources within the resource selection window that are reserved by neighboring UEs by decoding Sidelink Control Information, SCI, within the sensing window; excluding any occupied resources from the total number of resources based on the threshold; determining (221 - 225) if an initial number of remaining resources is greater than or equal to an initial percentage of the total number of resources; and at least one iteration including: increasing the threshold, when the initial number of remaining resources is less than the initial percentage of the total number of resources, and redetermining if a subsequent number of remaining resources is greater than or equal to a subsequent percentage of the total number of resources, wherein the subsequent percentage varies for each iteration, wherein a factor by which the subsequent percentage changes depends on a ratio between aperiodic and periodic traffic.