mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing in a telecommunications core network a call between at least a first subscriber terminal and a second subscriber terminal , wherein the call includes media data, the method comprising: verifying that the call is eligible for call analysis; determining that one of the first subscriber terminal and the second subscriber terminal is not associated with a call analysis consent setting; triggering a first node on a call control plane of the core network to provide subscriber data to a call analysis node , wherein the subscriber data includes at least one subscriber identifier for at least one of the first subscriber terminal and the second subscriber terminal ; triggering a second node on a user plane of the core network to direct at least a part of the media data to the call analysis node ; and excluding media data originating from the one of the first subscriber terminal and the second subscriber terminal that is not associated with the call analysis consent setting from being directed to the call analysis node or informing the call analysis node that media data originating from the one of the first subscriber terminal and the second subscriber terminal that is not associated with the call analysis consent setting is to be excluded from media analysis. verifying that the call is eligible for call analysis; determining that one of the first subscriber terminal and the second subscriber terminal is not associated with a call analysis consent setting; triggering a first node on a call control plane of the core network to provide subscriber data to a call analysis node , wherein the subscriber data includes at least one subscriber identifier for at least one of the first subscriber terminal and the second subscriber terminal ; triggering a second node on a user plane of the core network to direct at least a part of the media data to the call analysis node ; and
A synthetic fiber cable comprising: a core member having multiple resin-impregnated synthetic fibers , the fibers being bundled together; and multiple side members each having multiple resin-impregnated synthetic fibers , the fibers being bundled together in each side member ; wherein the resin is in a cured state and each of the multiple side members has been shaped utilizing curability of the resin; each of said shaped multiple side members being in such a state that they are twisted together around said core member , characterized in that each of the multiple side members constituting said synthetic fiber cable has bulged portions (3A-3D) each shaped so as to bulge slightly outward; and said bulged portion (3A-3D) being formed repeatedly on each of said side members along the longitudinal direction thereof. a core member having multiple resin-impregnated synthetic fibers , the fibers being bundled together; and multiple side members each having multiple resin-impregnated synthetic fibers , the fibers being bundled together in each side member ; wherein the resin is in a cured state and each of the multiple side members has been shaped utilizing curability of the resin; each of said shaped multiple side members being in such a state that they are twisted together around said core member , characterized in that each of the multiple side members constituting said synthetic fiber cable has bulged portions (3A-3D) each shaped so as to bulge slightly outward; and said bulged portion (3A-3D) being formed repeatedly on each of said side members along the longitudinal direction thereof.
Method for high spatial resolution imaging of a structure of a sample, comprising the steps of: a) selecting a substance from a group of substances that are transferable by way of photoactivation at least once from a first state with first optical properties into a second state with second optical properties by changing the fluorescence properties of the molecules, b) transferring changing proportions of the substance into the second state by way of photoactivation, wherein switching radiation is generated by means of at least one light source in order to switch a first subset of the switchable dye molecules in the sample into the second state, wherein the switching is effected such that the distance between switched molecules is greater than or equal to the diffraction-limited optical resolution of the microscope, and excitation radiation is emitted to excite the first subset of the switchable dye molecules that have been transferred into the second state to fluoresce, c) spatially resolved registering an optical measurement signal emanating from the dye molecules that are in the second state via an objective using a detector, and locating the molecules, d) deactivating the activated molecules, and e) repeating steps b), c) and d), wherein a high-resolution image is composed by overlaying detection images, characterized in that the transfer into the second state and/or the excitation takes place at least approximately perpendicularly to the detection direction and thus to the optical axis of the objective, wherein a two-dimensional light sheet is produced as the illumination region substantially in the focal plane of the objective by way of illumination that is focused in the manner of a line at least in one direction. a) selecting a substance from a group of substances that are transferable by way of photoactivation at least once from a first state with first optical properties into a second state with second optical properties by changing the fluorescence properties of the molecules, b) transferring changing proportions of the substance into the second state by way of photoactivation, wherein switching radiation is generated by means of at least one light source in order to switch a first subset of the switchable dye molecules in the sample into the second state, wherein the switching is effected such that the distance between switched molecules is greater than or equal to the diffraction-limited optical resolution of the microscope, and excitation radiation is emitted to excite the first subset of the switchable dye molecules that have been transferred into the second state to fluoresce, c) spatially resolved registering an optical measurement signal emanating from the dye molecules that are in the second state via an objective using a detector, and locating the molecules, d) deactivating the activated molecules, and e) repeating steps b), c) and d), wherein a high-resolution image is composed by overlaying detection images,
A multiplexer comprising: a first circuit coupled between a first input terminal (IN1P and a first output terminal (OUTP), the first circuit configured and arranged to transfer a first radio frequency (RF) signal coupled at the first input terminal to the first output terminal as a first output signal when a first control signal (SEL1) is at a first logic value; and a second circuit coupled between a second input terminal (IN2P) and the first output terminal, the second circuit configured and arranged to amplify a second RF signal coupled at the second input terminal as it is transferred to the first output terminal as a second output signal when the first control signal is at a second logic value,; wherein the first circuit comprises: a first transistor having a first current electrode coupled to the first input terminal, a second current electrode coupled to the first output terminal, and a control electrode coupled to receive the first control signal; and a second transistor having a first current electrode coupled to the second current electrode of the first transistor, a second current electrode coupled at a first supply terminal (GND), and a control electrode coupled to receive a second control signal (SEL2), the second control signal a complementary signal of the first control signal. a first circuit coupled between a first input terminal (IN1P and a first output terminal (OUTP), the first circuit configured and arranged to transfer a first radio frequency (RF) signal coupled at the first input terminal to the first output terminal as a first output signal when a first control signal (SEL1) is at a first logic value; and a second circuit coupled between a second input terminal (IN2P) and the first output terminal, the second circuit configured and arranged to amplify a second RF signal coupled at the second input terminal as it is transferred to the first output terminal as a second output signal when the first control signal is at a second logic value,; wherein the first circuit comprises: a first transistor having a first current electrode coupled to the first input terminal, a second current electrode coupled to the first output terminal, and a control electrode coupled to receive the first control signal; and a second transistor having a first current electrode coupled to the second current electrode of the first transistor, a second current electrode coupled at a first supply terminal (GND), and a control electrode coupled to receive a second control signal (SEL2), the second control signal a complementary signal of the first control signal. a first transistor having a first current electrode coupled to the first input terminal, a second current electrode coupled to the first output terminal, and a control electrode coupled to receive the first control signal; and a second transistor having a first current electrode coupled to the second current electrode of the first transistor, a second current electrode coupled at a first supply terminal (GND), and a control electrode coupled to receive a second control signal (SEL2), the second control signal a complementary signal of the first control signal.
Ladder with at least one spar made of wood, at least one step made of metal and/or an alloy and/or a polymer, and at least one connecting element between the spar and the step , wherein the spar has at least one first receptacle designed as a recess with an inner contour and the step has a second receptacle for the connecting element , and the connecting element in the operational state is connected to the first and the second receptacle and is arranged between them, the connecting element having a first and a second connecting area, the first connecting area being in the operational state in is pressed into the first receptacle and has at least one part which is positively and non-positively fixed in the material surrounding of the first receptacle , the second connection area being arranged in the second receptacle in the operational state and wherein the second connection area is arranged in a form-fitting and/or force-fitting manner in the second receptacle , characterized in that the first connection area is a polygon, preferably a square, and at least two of its corners pierce the inner contour of the first receptacle.
An apparatus for analyzing coronary vessels, comprising an input unit adapted to receive simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest and a co-registration unit adapted to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity. an input unit adapted to receive simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest and simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest a co-registration unit adapted to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity. to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity.
A composition comprising 2,4-disulfonyl α-phenyl tertiary butyl nitrone for use in a method for treating blast or noise induced traumatic brain injury or a method for treating noise induced tinnitus by oral administration.
A method comprising: receiving, by a computing device and from a plurality of microphones, one or more indications of first speech detected in at least one of a plurality of listening zones; determining, based on the one or more indications of the first speech, that the first speech comprises a keyword; determining a direction associated with the keyword; characterized by : detecting, using an acoustic beam formed by at least some of the plurality of microphones, pointed in the direction associated with the keyword, and having a width that is narrower than a width of each of the plurality of listening zones, second speech associated with the keyword; and recognizing the second speech to generate an indication of recognized speech. receiving, by a computing device and from a plurality of microphones, one or more indications of first speech detected in at least one of a plurality of listening zones; determining, based on the one or more indications of the first speech, that the first speech comprises a keyword; determining a direction associated with the keyword; characterized by : detecting, using an acoustic beam formed by at least some of the plurality of microphones, pointed in the direction associated with the keyword, and having a width that is narrower than a width of each of the plurality of listening zones, second speech associated with the keyword; and recognizing the second speech to generate an indication of recognized speech. detecting, using an acoustic beam formed by at least some of the plurality of microphones, pointed in the direction associated with the keyword, and having a width that is narrower than a width of each of the plurality of listening zones, second speech associated with the keyword; and recognizing the second speech to generate an indication of recognized speech.
A tool for delivering energy generated by sonoluminescence to a wellbore in a hydrocarbon-bearing formation, the tool comprising: an elongate body configured for placement within the wellbore; one or more cavity containers disposed along a length of the tool and at least partially disposed within the elongate body, where each of the one or more cavity containers comprises: a cavity defined by a housing ; a liquid port configured to introduce a liquid into the cavity; a gas port configured to introduce one or more gases into the cavity; one or more acoustic transducers disposed adjacent to the cavity and configured to generate a sound wave to induce sonoluminescence in the cavity; and one or more acoustic mirrors disposed adjacent to the cavity and configured to reflect and direct the generated energy from the induced sonoluminescence toward the formation. an elongate body configured for placement within the wellbore; one or more cavity containers disposed along a length of the tool and at least partially disposed within the elongate body, where each of the one or more cavity containers comprises: a cavity defined by a housing ; a liquid port configured to introduce a liquid into the cavity; a gas port configured to introduce one or more gases into the cavity; one or more acoustic transducers disposed adjacent to the cavity and configured to generate a sound wave to induce sonoluminescence in the cavity; and one or more acoustic mirrors disposed adjacent to the cavity and configured to reflect and direct the generated energy from the induced sonoluminescence toward the formation. a cavity defined by a housing ; a liquid port configured to introduce a liquid into the cavity; a gas port configured to introduce one or more gases into the cavity; one or more acoustic transducers disposed adjacent to the cavity and configured to generate a sound wave to induce sonoluminescence in the cavity; and one or more acoustic mirrors disposed adjacent to the cavity and configured to reflect and direct the generated energy from the induced sonoluminescence toward the formation.
A method for anomaly detection in network traffic communicated by devices via a computer network , the method comprising: receiving a set of training time series each including a plurality of time windows of data corresponding to network communication characteristics for a device; clustering the set of time series into a plurality of clusters each including a subset of the set of training time series, wherein clustering includes converting each time series to a feature vector and clustering on the basis of the feature vectors such that time series with common features are clustered together; training an autoencoder for a first cluster based on time series in the cluster, wherein a state of the autoencoder is periodically recorded after a predetermined fixed number of training examples to define a set of trained autoencoders for the cluster; receiving a new time series including a plurality of time windows of data corresponding to network communication characteristics for a device; for each time window of the new time series, generating a vector of reconstruction errors for the device for each autoencoder based on testing the autoencoder with data from the time window; evaluating a derivative of each vector as a gradient vector; training a machine learning model based on the derivatives so as to define a filter for identifying subsequent time series for a device being absent anomalous communication. receiving a set of training time series each including a plurality of time windows of data corresponding to network communication characteristics for a device; clustering the set of time series into a plurality of clusters each including a subset of the set of training time series, wherein clustering includes converting each time series to a feature vector and clustering on the basis of the feature vectors such that time series with common features are clustered together; training an autoencoder for a first cluster based on time series in the cluster, wherein a state of the autoencoder is periodically recorded after a predetermined fixed number of training examples to define a set of trained autoencoders for the cluster; receiving a new time series including a plurality of time windows of data corresponding to network communication characteristics for a device; for each time window of the new time series, generating a vector of reconstruction errors for the device for each autoencoder based on testing the autoencoder with data from the time window; evaluating a derivative of each vector as a gradient vector; training a machine learning model based on the derivatives so as to define a filter for identifying subsequent time series for a device being absent anomalous communication.
An energy absorption extrusion component produced from an alloy composition comprising, in weight percent, Si: 0.50-0.80; Fe: <0.40; Cu: 0.15-0.35; Mn: 0.26-0.40; Mg: 0.50-0.80; Cr: 0.10-0.25; Zn: <0.20; and optionally Sn at levels of 0.02-0.10% by weight; and/or optionally comprises Sr at levels up to 0.30% by weight; and/or optionally V ≤ 0.04% by weight; with other elements being considered incidental elements and consisting of less than 0.05 individually and 0.15 in total with the balance being aluminium; wherein said extrusion component has a specific energy absorption of greater than 22 kJ/mm 2 and a yield strength of greater than 260 MPa while providing no fragmentation or surface cracks greater than 10 mm during defined crush testing; wherein crush testing comprises crushing a 300mm long sample in the longitudinal direction to 100 mm at a rate of 100 mm / minute, recording the force required through the stroke of the crush testing and measuring the area under the force displacement curve to calculate the energy absorption, and wherein the specific energy absorption is energy absorbed per cross sectional area, and the sample further comprises a three void hollow extrusion with wall thicknesses from 1.5mm to 4mm and a rectangular or trapezoidal perimeter being 75mm to 175mm in the long direction and 40mm to 100mm in the shorter direction. 0.10-0.25; Zn: <0.20; and optionally Sn at levels of 0.02-0.10% by weight; and/or optionally comprises Sr at levels up to 0.30% by weight; and/or optionally V ≤ 0.04% by weight; with other elements being considered incidental elements and consisting of less than 0.05 individually and 0.15 in total with the balance being aluminium; wherein said extrusion component has a specific energy absorption of greater than 22 kJ/mm 2 and a yield strength of greater than 260 MPa while providing no fragmentation or surface cracks greater than 10 mm during defined crush testing; wherein crush testing comprises crushing a 300mm long sample in the longitudinal direction to 100 mm at a rate of 100 mm / minute, recording the force required through the stroke of the crush testing and measuring the area under the force displacement curve to calculate the energy absorption, and wherein the specific energy absorption is energy absorbed per cross sectional area, and the sample further comprises a three void hollow extrusion with wall thicknesses from 1.5mm to 4mm and a rectangular or trapezoidal perimeter being 75mm to 175mm in the long direction and 40mm to 100mm in the shorter direction.