mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-based method of recreating a music mix based on a mix instructions file, wherein the mix instructions file comprises information identifying at least one creation music track used when creating the mix instructions file, waveform data related to the creation music track, and control information controlling the playback of the at least one creation music track, said method comprising a. Providing a consumption audio music track to be controlled by the control information b. Obtaining waveform data related to the consumption music track c. Comparing waveform data related to the consumption music track to the waveform data related to the creation music track d. Depending on the result of the comparison, deciding whether to use the consumption music track when reconstructing the music mix, e. If the decision in step d is positive, reconstructing the music mix by applying the control information to the consumption music track. a. Providing a consumption audio music track to be controlled by the control information b. Obtaining waveform data related to the consumption music track c. Comparing waveform data related to the consumption music track to the waveform data related to the creation music track d. Depending on the result of the comparison, deciding whether to use the consumption music track when reconstructing the music mix, e. If the decision in step d is positive, reconstructing the music mix by applying the control information to the consumption music track.
An azimuth thruster comprising apparatus for transferring electrical energy, comprising: a stationary part having a first surface oriented perpendicular to a longitudinal axis of the azimuth thruster and a perimeter extending around the first surface , the stationary part being mountable to a vessel; a rotatable part having a second surface oriented perpendicular to the longitudinal axis and positioned adjacent the first surface of the stationary part , and a perimeter extending around the second surface , the second surface being arranged to rotate relative to the first surface , the first surface and the second surface facing each other and thereby defining a gap there between; wherein the apparatus for transferring electrical energy comprises: a first inductor , positioned on a first part of the first surface , to provide a magnetic field, the first part extending along only a portion of the perimeter of the first surface ; a second inductor , positioned on a second part of the second surface , the second part extending along only a portion of the perimeter of the second surface , the second inductor being arranged to generate an electrical current from the magnetic field when the first part and the second part are at least partially aligned, thereby forming a transformer transferring electrical energy across the gap . a stationary part having a first surface oriented perpendicular to a longitudinal axis of the azimuth thruster and a perimeter extending around the first surface , the stationary part being mountable to a vessel; a rotatable part having a second surface oriented perpendicular to the longitudinal axis and positioned adjacent the first surface of the stationary part , and a perimeter extending around the second surface , the second surface being arranged to rotate relative to the first surface , the first surface and the second surface facing each other and thereby defining a gap there between; wherein the apparatus for transferring electrical energy comprises: a first inductor , positioned on a first part of the first surface , to provide a magnetic field, the first part extending along only a portion of the perimeter of the first surface ; a second inductor , positioned on a second part of the second surface , the second part extending along only a portion of the perimeter of the second surface , the second inductor being arranged to generate an electrical current from the magnetic field when the first part and the second part are at least partially aligned, thereby forming a transformer transferring electrical energy across the gap . a first inductor , positioned on a first part of the first surface , to provide a magnetic field, the first part extending along only a portion of the perimeter of the first surface ; a second inductor , positioned on a second part of the second surface , the second part extending along only a portion of the perimeter of the second surface , the second inductor being arranged to generate an electrical current from the magnetic field when the first part and the second part are at least partially aligned, thereby forming a transformer transferring electrical energy across the gap .
Arrangement with a voltage module , which comprises at least one battery and/or at least one fuel cell, wherein both module poles of the voltage module are insulated with respect to a module housing of the voltage module by means of an insulation , and with an insulation characterisation facility , which comprises at least one voltage provisioning facility and a measuring facility , characterised in that - the at least one voltage provisioning facility is suited to applying a temporally variable measuring voltage (Um), in particular a sinusoidal or rectangular alternating voltage, to the insulation , and - the measuring facility is designed to capture developing partial discharge currents (Ie) which flow through the insulation and on the basis of the captured partial discharge currents (Ie) to generate a measuring result which characterises the insulation . wherein both module poles of the voltage module are insulated with respect to a module housing of the voltage module by means of an insulation , and with an insulation characterisation facility , which comprises at least one voltage provisioning facility and a measuring facility , characterised in that - the at least one voltage provisioning facility is suited to applying a temporally variable measuring voltage (Um), in particular a sinusoidal or rectangular alternating voltage, to the insulation , and - the measuring facility is designed to capture developing partial discharge currents (Ie) which flow through the insulation and on the basis of the captured partial discharge currents (Ie) to generate a measuring result which characterises the insulation . - the at least one voltage provisioning facility is suited to applying a temporally variable measuring voltage (Um), in particular a sinusoidal or rectangular alternating voltage, to the insulation , and - the measuring facility is designed to capture developing partial discharge currents (Ie) which flow through the insulation and on the basis of the captured partial discharge currents (Ie) to generate a measuring result which characterises the insulation .
A film for administration of an active agent to a body surface, the film comprising: (a) a blend of a hydrophilic polymer and a plasticizer, wherein the plasticizer is capable of non-covalent bonding to the hydrophilic polymer; wherein the weight ratio of the hydrophilic polymer to plasticizer is in the range of about 1.5:1 to about 3:1; wherein the plasticizer is a bifunctional, linear oligomer having a functional group at each terminus, each of said terminal functional groups capable of noncovalently bonding to the hydrophilic polymer, and wherein the hydrophilic polymer is selected from poly (N-vinyl lactams), poly (N-vinyl amides), poly (N-vinyl acrylamides), poly (N-alkylacrylamides), poly (N-vinyl acetamides), substituted and unsubstituted acrylic and methacrylic acid polymers, polyvinyl alcohol, polyvinylamine, and copolymers and blends thereof; (b) a rapidly dissolving polymeric material selected from oligosaccharides and polysaccharides; and (c) an effective amount of an active agent, wherein the blend and the rapidly dissolving polymeric material facilitate dissolution of the film within 10 minutes following application of the film to a moist body surface. (a) a blend of a hydrophilic polymer and a plasticizer, wherein the plasticizer is capable of non-covalent bonding to the hydrophilic polymer; wherein the weight ratio of the hydrophilic polymer to plasticizer is in the range of about 1.5:1 to about 3:1; wherein the plasticizer is a bifunctional, linear oligomer having a functional group at each terminus, each of said terminal functional groups capable of noncovalently bonding to the hydrophilic polymer, and wherein the hydrophilic polymer is selected from poly (N-vinyl lactams), poly (N-vinyl amides), poly (N-vinyl acrylamides), poly (N-alkylacrylamides), poly (N-vinyl acetamides), substituted and unsubstituted acrylic and methacrylic acid polymers, polyvinyl alcohol, polyvinylamine, and copolymers and blends thereof; (b) a rapidly dissolving polymeric material selected from oligosaccharides and polysaccharides; and (c) an effective amount of an active agent, wherein the blend and the rapidly dissolving polymeric material facilitate dissolution of the film within 10 minutes following application of the film to a moist body surface.
A pneumatic tire comprising two annular bead portions each having a bead core , a carcass extending between the bead portions through sidewall portions and a tread portion, wherein the carcass includes at least two axially inner plies which extend down from the tread and axially inward of the bead core , said at least two axially inner plies being wound around the bead core forming respective turn-ups , each turn-up being located axially outward of the bead core , characterized in that the carcass further includes at least one axially outer ply which extends down from the tread towards the bead core and which is positioned axially outward of the bead core , wherein the at least one axially outer ply is formed using reinforcements having (i) a higher break strength than the reinforcements of the at least two axially inner plies and/or (ii) a lower % elongation at break than the reinforcements of the at least two axially inner plies ply .
A gas turbine engine with oil debris monitoring comprising: an oil debris monitor sensor (240;340) configured to detect oil debris in an oil flow (211;313), and generate a sensor signal (241;341) based on the detected oil debris; a controller (220;320) configured to control the oil flow (211;313) through the oil debris monitor sensor (240;340) using a mechanical system (210;310) comprising a plurality of components, the plurality of components including a plurality of valves; and a signal processor (230;330) configured to receive the sensor signal (241;341) from the oil debris monitor (240;340) and to receive a valve system configuration (221;321) from the controller (220;320) indicating a load applied to the plurality of valves, the signal processor (230;330) further configured to generate a health indicator based on the detected oil debris indicated by the sensor signal (241;341) and the load indicated by the valve system configuration (221;321); wherein the health indicator preferably includes at least one of an estimated value of debris in the oil flow, a type of debris, a calculated size of debris particulate, and a calculated amount of debris in the oil over time. an oil debris monitor sensor (240;340) configured to detect oil debris in an oil flow (211;313), and generate a sensor signal (241;341) based on the detected oil debris; a controller (220;320) configured to control the oil flow (211;313) through the oil debris monitor sensor (240;340) using a mechanical system (210;310) comprising a plurality of components, the plurality of components including a plurality of valves; and a signal processor (230;330) configured to receive the sensor signal (241;341) from the oil debris monitor (240;340) and to receive a valve system configuration (221;321) from the controller (220;320) indicating a load applied to the plurality of valves, the signal processor (230;330) further configured to generate a health indicator based on the detected oil debris indicated by the sensor signal (241;341) and the load indicated by the valve system configuration (221;321); wherein the health indicator preferably includes at least one of an estimated value of debris in the oil flow, a type of debris, a calculated size of debris particulate, and a calculated amount of debris in the oil over time.
An in-vehicle air imaging apparatus for a vehicle, comprising: an image source configured for generating a graphic for display; and an imaging magnifier configured for magnifying the graphic generated by the image source and forming a real image in the air inside the vehicle, characterized in that the imaging magnifier is a Fresnel lens group comprising at least two Fresnel lenses arranged in parallel, each of the Fresnel lenses comprising a substrate and straight teeth arranged in parallel on the substrate , the straight teeth of one Fresnel lens being not parallel to the straight teeth of its neighboring Fresnel lens. an image source configured for generating a graphic for display; and an imaging magnifier configured for magnifying the graphic generated by the image source and forming a real image in the air inside the vehicle, characterized in that the imaging magnifier is a Fresnel lens group comprising at least two Fresnel lenses arranged in parallel, each of the Fresnel lenses comprising a substrate and straight teeth arranged in parallel on the substrate , the straight teeth of one Fresnel lens being not parallel to the straight teeth of its neighboring Fresnel lens.
A method comprising, by one or more computing devices: accessing first data associated with mobile-computing-device usage by a user of a social networking system; accessing second data associated with past user states of the user, a user state of the user comprising a temporal, spatial, modal, or social accessibility of the user; and predicting , by combined weighted predictor functions, wherein each predictor function is generated using a machine learned algorithm that is trained using a user's historical activity associated with a specific user state, based at least in part on the first and second data: a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; adapting the operation of a mobile computing device of the user at the future time to the future user state; and adapting network interaction with a mobile computing device of the user at the future time to the future mobile-computing-device usage, the adaptation comprising requesting interaction by the mobile computing device with the social networking system by automatically selecting social-networking information to push to the mobile computing device of the user relevant to the user travelling within the geographical area. accessing first data associated with mobile-computing-device usage by a user of a social networking system; accessing second data associated with past user states of the user, a user state of the user comprising a temporal, spatial, modal, or social accessibility of the user; and predicting , by combined weighted predictor functions, wherein each predictor function is generated using a machine learned algorithm that is trained using a user's historical activity associated with a specific user state, based at least in part on the first and second data: a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; a future user state of the user at a future time, the future user state comprising the user travelling within a geographical area; and a future mobile-computing-device-usage by the user at the future time; adapting the operation of a mobile computing device of the user at the future time to the future user state; and adapting network interaction with a mobile computing device of the user at the future time to the future mobile-computing-device usage, the adaptation comprising requesting interaction by the mobile computing device with the social networking system by automatically selecting social-networking information to push to the mobile computing device of the user relevant to the user travelling within the geographical area.
Method comprising a determination of an estimation of a currently engaged gear (S15) in a motor vehicle having a clutch between a motor and a transmission , wherein the estimation of a currently engaged gear (S15) is based on determining load/coast mode, characterized in that the determination of load/coast mode is based on a calculation of a clutch torque, wherein the clutch torque ( M kup.ist ) is calculated based on a torque of the motor ( M mot ) and based on a torque ( θ mot x ώ mot ) that is required for modifying a rotating speed of the motor .
Method for computing an output of a neural network , comprising the following steps: - a computer generating (S101) a first neural network (100-1) having discrete edge weights ( w 1b ) from a neural network having precise edge weights ( w prec ) through stochastic rounding by way of a multiplexer formed as a hardware circuit and designed as a pseudorandom number generator; - a computer generating (S102) a second neural network (100-2) having discrete edge weights ( w 2b ) from the neural network having precise edge weights ( w prec ) through stochastic rounding by way of the multiplexer formed as a hardware circuit and designed as a pseudorandom number generator; and - computing (S103) an output by adding the output of the first neural network (100-1) and of the second neural network (100-2), wherein, during the stochastic rounding, further neural networks (100-N) having discrete edge weights ( w Nb ) are generated on the basis of an accuracy requirement for the output from the neural network having precise edge weights ( w prec ) and taken into consideration in the addition. - a computer generating (S101) a first neural network (100-1) having discrete edge weights ( w 1b ) from a neural network having precise edge weights ( w prec ) through stochastic rounding by way of a multiplexer formed as a hardware circuit and designed as a pseudorandom number generator; - a computer generating (S102) a second neural network (100-2) having discrete edge weights ( w 2b ) from the neural network having precise edge weights ( w prec ) through stochastic rounding by way of the multiplexer formed as a hardware circuit and designed as a pseudorandom number generator; and - computing (S103) an output by adding the output of the first neural network (100-1) and of the second neural network (100-2), wherein, during the stochastic rounding, further neural networks (100-N) having discrete edge weights ( w Nb ) are generated on the basis of an accuracy requirement for the output from the neural network having precise edge weights ( w prec ) and taken into consideration in the addition.
Cryobiopsy probe comprising a biopsate recovery device for recovering a biopsate through an opening with a recovery element for fastening to or adjacent to a working tip of the cryobiopsyprobe, wherein the recovery element is adapted to the folded over the biopsate upon retraction of the working tip through the opening , in order to enclose the biopsate upon retraction of the working tip through the opening , so as to separate the biopsate from the environment upon the retraction through the opening , wherein the recovery element comprises, in longitudinal direction (L) of the recovery element , sequential sections of the recovery element , wherein the recovery element comprises a fastening section , a section for enclosing the biopsate and a connecting section that connects the section for enclosing the biopsate to the fastening section , wherein the wall thickness (wu) of the section for enclosing the biopsate is less than the wall thickness (wv) of the connecting section . wherein the recovery element is adapted to the folded over the biopsate upon retraction of the working tip through the opening , in order to enclose the biopsate upon retraction of the working tip through the opening , so as to separate the biopsate from the environment upon the retraction through the opening , wherein the recovery element comprises, in longitudinal direction (L) of the recovery element , sequential sections of the recovery element , wherein the recovery element comprises a fastening section , a section for enclosing the biopsate and a connecting section that connects the section for enclosing the biopsate to the fastening section , wherein the wall thickness (wu) of the section for enclosing the biopsate is less than the wall thickness (wv) of the connecting section .
Manually guided hand-operated power tool for producing a centre cut (T) in a workpiece (W) along a working direction (AR) by means of a cutting tool , which cuts into the workpiece (W) as the hand-operated power tool is guided along the workpiece (W), wherein the hand-operated power tool has a drive with a drive motor and a tool holder for holding the cutting tool , which tool holder can be driven by the drive in a reciprocating motion to oscillate with respect to a drive axis (AL), wherein the drive motor is accommodated in a machine housing of the hand-operated power tool , wherein the tool holder is located on a base side of the machine housing , from which the cutting tool projects in a position of use when located at the tool holder and from which a cutting contour of the cutting tool is oriented towards the front in the working direction (AR), and wherein the hand-operated power tool has an extraction port for connecting an extraction device , in particular a suction device , for extracting particles arising during a machining of the workpiece (W) by means of the cutting tool , wherein the extraction port is in flow connection with an extraction region of the hand-operated power tool , at or in which the tool holder is located, wherein the extraction port is located at a drive section of the machine housing located in front in the working direction (AR), wherein it has an in particular attachable guide body , in particular a guide plate, wherein the guide body has a guide surface, in particular a plane surface, averted from the machine housing for guiding on a base (U), and wherein the extraction port and/or a covering device at least partially covering the extraction region can be adjusted by means of a bearing device between a covering position (AS) moved closer to the tool holder and at least one release position (FS) more distant from the tool holder than the covering position (AS), wherein the extraction port or the covering device remains at the machine housing during the adjustment between the covering position (AS) and the at least one release position (FS), characterised in that the bearing device is located at the machine housing and holds the extraction port or the covering device between the covering position (AS) and the release position (FS) relative to the guide body .