mhurhangee/ep-ind-claims huggingface dataset:
A method for antenna selection in a wireless communication network, the network comprising a transceiver, wherein the transceiver has a set of antennas, and wherein the transceiver is configured to transmit a frequency-hopped sounding reference signal, SRS, over a subband from a subset (Tx 1, T X2) of antennas at a time, comprising in the transceiver: transmitting the frequency-hopped SRS from subsets (Tx 1, Tx 2) of antennas in the set of antennas substantially alternately; receiving, in response to the transmitting, information indicative of an optimal subset of antennas; and transmitting data from the optimal subset of antennas, wherein the transmitting substantially alternately is according to a frequency-hopped pattern, and wherein, when the number of subbands is an integer multiplier of the number of subsets (Tx 1, Tx 2) of transmitting antennas, the transmitting substantially alternately further comprises: altering a transmission order of the frequency-hopped pattern after the end of transmission of the frequency-hopped pattern. transmitting the frequency-hopped SRS from subsets (Tx 1, Tx 2) of antennas in the set of antennas substantially alternately; receiving, in response to the transmitting, information indicative of an optimal subset of antennas; and transmitting data from the optimal subset of antennas, wherein the transmitting substantially alternately is according to a frequency-hopped pattern, and wherein, when the number of subbands is an integer multiplier of the number of subsets (Tx 1, Tx 2) of transmitting antennas, the transmitting substantially alternately further comprises: altering a transmission order of the frequency-hopped pattern after the end of transmission of the frequency-hopped pattern. altering a transmission order of the frequency-hopped pattern after the end of transmission of the frequency-hopped pattern.
Method for monitoring tyre properties of vehicle tyres (6, 7) on a vehicle, having at least the following steps of a) providing vehicle tyres (6, 7) having a multiplicity of tyre modules on a vehicle, wherein the tyre modules each have at least one sensor for measuring tyre properties, b) starting and moving the vehicle, wherein the tyre modules change from a standstill mode (9, 13) to a movement mode (10, 11), characterized by c) stopping the vehicle, wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre (6, 7) and then changes to a receiving mode for a stationary receiving apparatus, wherein, in this mode, the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode (10, 11) or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules, d) transitioning to an interim mode if a predefined period is exceeded or transitioning to the movement mode (10, 11). a) providing vehicle tyres (6, 7) having a multiplicity of tyre modules on a vehicle, wherein the tyre modules each have at least one sensor for measuring tyre properties, b) starting and moving the vehicle, wherein the tyre modules change from a standstill mode (9, 13) to a movement mode (10, 11), characterized by wherein the tyre modules change from a standstill mode (9, 13) to a movement mode (10, 11), characterized by c) stopping the vehicle, wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre (6, 7) and then changes to a receiving mode for a stationary receiving apparatus, wherein, in this mode, the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode (10, 11) or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules, wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre (6, 7) and then changes to a receiving mode for a stationary receiving apparatus, wherein, in this mode, the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode (10, 11) or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules, d) transitioning to an interim mode if a predefined period is exceeded or transitioning to the movement mode (10, 11).
A hydraulic drive for a tool comprising in a working chamber a piston which is adapted to be acted upon on one side thereof against a permanent load (9, 10) by a pump, which is operable in a switch-off mode, via a valve arrangement including a pressure limiting seat valve and a parallel switching seat valve, wherein a restriction is provided in a pressure line from the pump to the working chamber upstream of the pressure limiting seat valve, the pressure limiting seat valve is connected to a tank on the downstream side, a drain line, which is connected to the pressure line downstream of the restriction, leads from the working chamber via the switching seat valve to the tank, a closing control side of the switching seat valve is adapted to have applied thereto pressure from the pressure line upstream of the restriction, an opening control side of the switching seat valve is adapted to have applied thereto a force generated when the pressure limiting seat valve responds, the pressure limiting seat valve has on a spring-loaded valve piston a first smaller pressure application surface, which is adapted to be acted upon by pressure from the pressure line and used for limiting the maximum operating pressure in the working chamber, and a second, much larger pressure application surface for keeping the pressure limiting seat valve open, after it has responded, at least until the pump is switched off, and the pump is adapted to be switched off when the maximum operating pressure has been reached, characterized in that, on the downstream side of the pressure limiting seat valve to the tank, a restriction means is provided for increasing the pressure from the pressure line acting on the larger pressure application surface of the pressure limiting seat valve, and that the force on the opening control side of the switching seat valve can be generated either mechanically or hydraulically by the pressure limiting seat valve from the raised pressure, when the pressure limiting seat valve responds and when it is kept open.
A vector construct designed to receive antibody or a fragment thereof from a phagemid comprising at least one cloning region or from a yeast vector comprising at least one cloning region, or, to transfer antibody or a fragment thereof to a yeast vector comprising at least one cloning region, said vector construct containing an expression cassette which comprises: at least one leader sequence; at least one cloning region for receiving a gene encoding a peptide or protein that selectively binds to a biologically active ligand; at least one nucleotide sequence encoding constant region immunoglobulin heavy chain or constant region immunoglobulin light chain, or fragments thereof, or a combination of constant region immunoglobulin heavy chain or fragment thereof and constant region immunoglobulin light chain or fragment thereof, wherein said constant region comprises at least one mutation with respect to constant region of a native immunoglobulin or fragments thereof; and at least one recombinant tag sequence or selection coding nucleic acid sequence; wherein, the at least one cloning region of the expression cassette comprises a multiple cloning site 1 (MCS I) and multiple cloning site 2 (MCS II), a multiple cloning site 1 (MCS I) alone, or a multiple cloning site 2 (MCS II) alone, and wherein the MCS I comprises restriction site combination NdeI and BglII and HindIII and AscI, and the MCS II comprises restriction site combination NcoI and XbaI and NheI and NotI. at least one leader sequence; at least one cloning region for receiving a gene encoding a peptide or protein that selectively binds to a biologically active ligand; at least one nucleotide sequence encoding constant region immunoglobulin heavy chain or constant region immunoglobulin light chain, or fragments thereof, or a combination of constant region immunoglobulin heavy chain or fragment thereof and constant region immunoglobulin light chain or fragment thereof, wherein said constant region comprises at least one mutation with respect to constant region of a native immunoglobulin or fragments thereof; and at least one recombinant tag sequence or selection coding nucleic acid sequence; wherein, the at least one cloning region of the expression cassette comprises a multiple cloning site 1 (MCS I) and multiple cloning site 2 (MCS II), a multiple cloning site 1 (MCS I) alone, or a multiple cloning site 2 (MCS II) alone, and wherein the MCS I comprises restriction site combination NdeI and BglII and HindIII and AscI, and the MCS II comprises restriction site combination NcoI and XbaI and NheI and NotI.
An ultrasonic inspection method for inspecting a first article, the method comprising, in a first inspection process: determining the distance between a first surface of the first article and a nominal axis (x) of a transducer arrangement at three or more measurement locations (MAx,y) along the axis of the surface; using the determined distances to produce a mathematical model of the surface of the first article; using the transducer arrangement to transmit a first ultrasonic wave (WAx,y) from a first side of the first article through the first surface of the first article at a plurality of inspection locations along the nominal axis, and receiving a first transmitted waveform (WAx,y) which has passed through the first surface; using the model to normalise each first transmitted (WAx,y) at each inspection location to the nominal axis (x,y); and identifying the location of a first signature signal from the first normalised transmitted waveform (WAf(x,y)) at each inspection location (MAx,y). determining the distance between a first surface of the first article and a nominal axis (x) of a transducer arrangement at three or more measurement locations (MAx,y) along the axis of the surface; using the determined distances to produce a mathematical model of the surface of the first article; using the transducer arrangement to transmit a first ultrasonic wave (WAx,y) from a first side of the first article through the first surface of the first article at a plurality of inspection locations along the nominal axis, and receiving a first transmitted waveform (WAx,y) which has passed through the first surface; using the model to normalise each first transmitted (WAx,y) at each inspection location to the nominal axis (x,y); and identifying the location of a first signature signal from the first normalised transmitted waveform (WAf(x,y)) at each inspection location (MAx,y).
A viscous fluid supply device comprising: a storage tray configured to store viscous fluid; an ejection device configured to eject the viscous fluid to the storage tray; a squeegee configured to adjust a film thickness of the viscous fluid by contacting the viscous fluid ejected to the storage tray by the ejection device; and a first moving device configured to relatively move the storage tray and the squeegee, wherein the ejection device has an ejection port configured to eject the viscous fluid, and a second moving device configured to relatively move the ejection port and the storage tray the first moving device is a device configured to rotate the storage tray, characterized in that: the viscous fluid supply device includes a control device configured to control operation of the ejection device, and the control device is configured to control the operation of the ejection device such that the viscous fluid is ejected by a smaller amount to a portion nearer to the outer edge of the storage tray after the viscous fluid stored in the storage tray has been used. a storage tray configured to store viscous fluid; an ejection device configured to eject the viscous fluid to the storage tray; a squeegee configured to adjust a film thickness of the viscous fluid by contacting the viscous fluid ejected to the storage tray by the ejection device; and a first moving device configured to relatively move the storage tray and the squeegee, wherein the ejection device has an ejection port configured to eject the viscous fluid, and a second moving device configured to relatively move the ejection port and the storage tray the first moving device is a device configured to rotate the storage tray, the viscous fluid supply device includes a control device configured to control operation of the ejection device, and the control device is configured to control the operation of the ejection device such that the viscous fluid is ejected by a smaller amount to a portion nearer to the outer edge of the storage tray after the viscous fluid stored in the storage tray has been used.
A system for optimizing the utilization of resources in instantiating virtual machine instances for conducting malware analysis on incoming content, comprising: means for determining whether a first virtual machine instance in accordance with a first software profile (360 1) corresponding to a targeted operating environment is currently running in the system, the first virtual machine instance being allocated first memory resources; characterized by, means for instantiating a second virtual machine instance in the system, the second virtual machine instance operating in accordance with the first software profile (360 1), the second virtual machine instance operating concurrently with the first virtual machine instance, and being provided (a) shared access to the first memory resources allocated for use by the first virtual machine instance and (b) exclusive access to second memory resources in response to conducting a Copy-On Write operation. means for determining whether a first virtual machine instance in accordance with a first software profile (360 1) corresponding to a targeted operating environment is currently running in the system, the first virtual machine instance being allocated first memory resources; characterized by, means for instantiating a second virtual machine instance in the system, the second virtual machine instance operating in accordance with the first software profile (360 1), the second virtual machine instance operating concurrently with the first virtual machine instance, and being provided (a) shared access to the first memory resources allocated for use by the first virtual machine instance and (b) exclusive access to second memory resources in response to conducting a Copy-On Write operation.
A method of determining a fraction of one or more phases in a multi-phase fluid in a conduit, the method comprising: exciting a sensing device (102, 202) to cause the sensing device to emit electromagnetic waves having microwave frequencies comprising a first set of microwave frequencies and a second set of microwave frequencies into the multi-phase fluid, wherein the sensing device (102, 202) comprises an antenna and a dielectric layer that is placed proximate to the multi-phase fluid, and wherein the antenna and the dielectric layer are selected such that resonance is exhibited in at least one of the first set of microwave frequencies and the second set of microwave frequencies based on a flow state of the multi-phase fluid; receiving transmitted or reflected electromagnetic waves from the multi-phase fluid; characterized in that the method further comprises selecting the flow state of the multi-phase fluid based on a classification parameter, wherein the classification parameter is determined from an analysis of the transmitted or reflected electromagnetic waves in at least one of the first set of microwave frequencies and second set of microwave frequencies; and determining the fraction of the one or more phases in the multi-phase fluid utilizing at least one fraction determination model, wherein the fraction determination model is selected based on the flow state of the multi-phase fluid. exciting a sensing device (102, 202) to cause the sensing device to emit electromagnetic waves having microwave frequencies comprising a first set of microwave frequencies and a second set of microwave frequencies into the multi-phase fluid, wherein the sensing device (102, 202) comprises an antenna and a dielectric layer that is placed proximate to the multi-phase fluid, and wherein the antenna and the dielectric layer are selected such that resonance is exhibited in at least one of the first set of microwave frequencies and the second set of microwave frequencies based on a flow state of the multi-phase fluid; receiving transmitted or reflected electromagnetic waves from the multi-phase fluid; characterized in that the method further comprises selecting the flow state of the multi-phase fluid based on a classification parameter, wherein the classification parameter is determined from an analysis of the transmitted or reflected electromagnetic waves in at least one of the first set of microwave frequencies and second set of microwave frequencies; and determining the fraction of the one or more phases in the multi-phase fluid utilizing at least one fraction determination model, wherein the fraction determination model is selected based on the flow state of the multi-phase fluid.
A surgical instrument, comprising: an elongate implement portion responsive to a firing motion and a closure motion; a firing mechanism operably configured to produce the firing motion between an unfired position and a fully fired position; a closing mechanism operably configured to close and to open the implement portion; and characterized by a closing release mechanism operably configured to lock the closing mechanism when the implement portion is in the fully closed position, and responsive to an operator command to unlock the closing mechanism only when the firing mechanism is in an unfired position. an elongate implement portion responsive to a firing motion and a closure motion; a firing mechanism operably configured to produce the firing motion between an unfired position and a fully fired position; a closing mechanism operably configured to close and to open the implement portion; and characterized by a closing release mechanism operably configured to lock the closing mechanism when the implement portion is in the fully closed position, and responsive to an operator command to unlock the closing mechanism only when the firing mechanism is in an unfired position.
A composition comprising at least one compound having the formula: wherein R is methyl or ethyl, said compound having the R stereoisomeric configuration at the 2 position and the R, S or RS stereoisomeric configuration at the 1' and 3' positions, or being a mixture thereof, and a pharmaceutically acceptable non-toxic carrier or excipient therefor, for use in treating sialorrhea intra-orally, in an amount of compound of formula of from about 1 mg to about 10 mg per adult dose, or from about 0.02 mg/kg to about 1.0 mg/kg per pediatric dose.
A method of decoding an audio signal, comprising: receiving the audio signal having a plurality of channel signals including an ambient component signal and a source component signal; extracting the ambient component signal of each of the channels based on correlation between the channel signals; obtaining the source component signal of each of the channels by eliminating the extracted ambient component signal from the audio signal; modifying the ambient component signal using surround effect information; and generating an audio signal including a plurality of channels using the modified ambient component signal and the source component signal. receiving the audio signal having a plurality of channel signals including an ambient component signal and a source component signal; extracting the ambient component signal of each of the channels based on correlation between the channel signals; obtaining the source component signal of each of the channels by eliminating the extracted ambient component signal from the audio signal; modifying the ambient component signal using surround effect information; and generating an audio signal including a plurality of channels using the modified ambient component signal and the source component signal.
A display apparatus comprising: a display configured to display a pointing object; a motor unit configured to rotate the display; and a communicator configured to communicate with an input device that controls a movement of a pointing object displayed on the display; and a processor configured to, in response to the object being in an edge area of the display, control the motor unit to cause the display to rotate in a direction that corresponds to the edge area of the display, and control the display to provide a first visual feedback that indicates the display is rotating, wherein the visual feedback is modifying a shape of the pointing object, wherein the processor initializes driving of the motor unit in response to the pointing object being located in an area located at a distance greater than or equal to a preset first distance and shorter than a preset second distance from the edge area of the display. a display configured to display a pointing object; a motor unit configured to rotate the display; and a communicator configured to communicate with an input device that controls a movement of a pointing object displayed on the display; and a processor configured to, in response to the object being in an edge area of the display, control the motor unit to cause the display to rotate in a direction that corresponds to the edge area of the display, and control the display to provide a first visual feedback that indicates the display is rotating, wherein the visual feedback is modifying a shape of the pointing object, wherein the processor initializes driving of the motor unit in response to the pointing object being located in an area located at a distance greater than or equal to a preset first distance and shorter than a preset second distance from the edge area of the display.
A method for processing data in a vehicle, - in which the data is received by a first processing unit via a network, - in which the data is decoded by the first processing unit, and - in which a piece of reproduction information comprising an output time is transmitted to a second processing unit, wherein - the first processing unit and the second processing unit both have an audio decoding unit(213, 221) and a video decoding unit (214, 222), - the first processing unit transmits the output time to the second processing unit, - the video decoding unit of the first processing unit is controlled on the basis of the output time, and wherein - the output of the video decoding unit of the second processing unit is controlled by the first processing unit on the basis of the transmitted output time. - in which the data is received by a first processing unit via a network, - in which the data is decoded by the first processing unit, and - in which a piece of reproduction information comprising an output time is transmitted to a second processing unit, - the first processing unit and the second processing unit both have an audio decoding unit(213, 221) and a video decoding unit (214, 222), - the first processing unit transmits the output time to the second processing unit, - the video decoding unit of the first processing unit is controlled on the basis of the output time, and wherein - the output of the video decoding unit of the second processing unit is controlled by the first processing unit on the basis of the transmitted output time.