mhurhangee/ep-ind-claims huggingface dataset:
A power tool comprising: a housing that houses a driving source; a hammer that is driven in a rotation direction by the driving source; an anvil being configured to rotate in the rotation direction and having at least one impact arm; and a locking mechanism that switches modes as to whether or not to lock the rotation of the anvil relative to the housing, characterized in that a lock releasing member which is allowed to rotate with respect to the anvil and has at least one protruding portion positioned in the rotation direction between the impact arm and the hammer, and when the hammer is rotated, the hammer is engaged with the protruding portion and the impact arm and the protruding portion and the impact arm rotate together with the hammer in an unlocked state of the locking mechanism, wherein during this rotation state, there is a gap between the protruding portion and the impact arm so that the lock releasing member is allowed to rotate between the hammer and the anvil; when the hammer does not rotate and the anvil rotates with respect to the lock releasing member, the locking mechanism switches to a locked state from the unlocked state. a housing that houses a driving source; a hammer that is driven in a rotation direction by the driving source; an anvil being configured to rotate in the rotation direction and having at least one impact arm; and a locking mechanism that switches modes as to whether or not to lock the rotation of the anvil relative to the housing, characterized in that a lock releasing member which is allowed to rotate with respect to the anvil and has at least one protruding portion positioned in the rotation direction between the impact arm and the hammer, and when the hammer is rotated, the hammer is engaged with the protruding portion and the impact arm and the protruding portion and the impact arm rotate together with the hammer in an unlocked state of the locking mechanism, wherein during this rotation state, there is a gap between the protruding portion and the impact arm so that the lock releasing member is allowed to rotate between the hammer and the anvil; when the hammer does not rotate and the anvil rotates with respect to the lock releasing member, the locking mechanism switches to a locked state from the unlocked state.
A computer-implemented method for improved real-time audio processing, the method comprising: receiving audio data including a plurality of frames having a plurality of frequency bins; calculating, for each frequency bin, an approximate speech signal estimation based on the plurality of frames, wherein the approximate speech signal estimation denotes combining statistical signal-processing algorithms with deep learning-based speech enhancement, reducing the stationary noise; calculating, for each approximate speech signal estimation, a clean speech estimation and at least one additional target including an ideal ratio mask using a trained convolutional-recurrent neural network model, the trained convolutional-recurrent neural network model including a convolutional component, at least one bidirectional recurrent component, and a fully-connected layer, wherein the bidirectional recurrent component automatically models dynamic correlations between adjacent frames in a noisy spectrogram by using a bidirectional recurrent neural network that includes recurrent connections in both directions; and calculating, for each frequency bin, a final clean speech estimation using the calculated at least one additional target including the calculated ideal ratio mask and the calculated clean speech estimation. receiving audio data including a plurality of frames having a plurality of frequency bins; calculating, for each frequency bin, an approximate speech signal estimation based on the plurality of frames, wherein the approximate speech signal estimation denotes combining statistical signal-processing algorithms with deep learning-based speech enhancement, reducing the stationary noise; calculating, for each approximate speech signal estimation, a clean speech estimation and at least one additional target including an ideal ratio mask using a trained convolutional-recurrent neural network model, the trained convolutional-recurrent neural network model including a convolutional component, at least one bidirectional recurrent component, and a fully-connected layer, wherein the bidirectional recurrent component automatically models dynamic correlations between adjacent frames in a noisy spectrogram by using a bidirectional recurrent neural network that includes recurrent connections in both directions; and calculating, for each frequency bin, a final clean speech estimation using the calculated at least one additional target including the calculated ideal ratio mask and the calculated clean speech estimation.
A mixing device for mixing a first gas flow with a second gas flow in a turbofan engine, - having an actuating device and a wall which delimits a radially internal channel for the first gas flow and a radially external channel for the second gas flow, - wherein the actuating device comprises a coupling element which is coupled to the wall, - wherein the actuating device is formed to swivel the wall, by means of the coupling element, between a first position and a second position arranged radially externally relative to the first position, - wherein the actuating device comprises an adjusting ring that is connected to the coupling element and can be rotated between a first rotary position and a second rotary position in the circumferential direction, - wherein the coupling element is formed rigidly and is coupled to the adjusting ring in such a way that as a result of a rotation of the adjusting ring between the first rotary position and the second rotary position the wall is swivelled, by means of the coupling element, between the first position and the second position in a manner corresponding to the rotation of the adjusting ring, characterised by a supporting structure that is arranged in the axial direction adjacently to the wall, wherein the supporting structure comprises a securing element, wherein axially the adjusting ring is arranged between the securing element and the wall and is connected with a further coupling element to the securing element. - having an actuating device and a wall which delimits a radially internal channel for the first gas flow and a radially external channel for the second gas flow, - wherein the actuating device comprises a coupling element which is coupled to the wall, - wherein the actuating device is formed to swivel the wall, by means of the coupling element, between a first position and a second position arranged radially externally relative to the first position, - wherein the actuating device comprises an adjusting ring that is connected to the coupling element and can be rotated between a first rotary position and a second rotary position in the circumferential direction, - wherein the coupling element is formed rigidly and is coupled to the adjusting ring in such a way that as a result of a rotation of the adjusting ring between the first rotary position and the second rotary position the wall is swivelled, by means of the coupling element, between the first position and the second position in a manner corresponding to the rotation of the adjusting ring,
An ornament for a vehicle passenger compartment including a flexible film including strass, arranged to be attached in the passenger compartment, the ornament further including a support insert at least partially covered by the flexible film and having an attachment interface on a passenger compartment element.
A composition comprising a) a component A, wherein said component A is an onion homogenate comprising - between 0.5 and 4% of soluble fiber, - between 70 and 90% of insoluble fiber, wherein said insoluble fiber comprises between 35 and 55% of lignin and between 45 and 65% of non-starch polysaccharides, - between 1 and 5% of soluble sugars - between 1 and 4% of phenols b) a component B, wherein said component B comprises soluble fiber, wherein said soluble fiber represents between 60 and 80% of the total composition of component B, wherein the total fiber represents between 70 and 90% of the total composition, and wherein said total fiber comprises between 60 and 80% of insoluble fiber and between 40 and 20% of soluble fiber. a) a component A, wherein said component A is an onion homogenate comprising - between 0.5 and 4% of soluble fiber, - between 70 and 90% of insoluble fiber, wherein said insoluble fiber comprises between 35 and 55% of lignin and between 45 and 65% of non-starch polysaccharides, - between 1 and 5% of soluble sugars - between 1 and 4% of phenols - between 0.5 and 4% of soluble fiber, - between 70 and 90% of insoluble fiber, wherein said insoluble fiber comprises between 35 and 55% of lignin and between 45 and 65% of non-starch polysaccharides, - between 1 and 5% of soluble sugars - between 1 and 4% of phenols b) a component B, wherein said component B comprises soluble fiber, wherein said soluble fiber represents between 60 and 80% of the total composition of component B,
A computer-based method for providing configurable unit configuration data, comprising the steps of: receiving from a plurality of sources including at least one configuration management database a plurality of configuration data sets pertaining to the same configurable unit, said configurable unit having a plurality of configurable elements; assigning weight values to configurable elements reported in said data sets using one or more weighting rules and preferences, wherein each configurable element is assigned a weight value based on its likelihood of being correct; creating a new configuration data set for said configurable unit by selecting configurable elements having greater assigned weight values; assigning a confidence factor to each configurable element in said new configuration data set by analysing the assigned weight values and range of differences of the weight values between the plurality of data sets; and updating a configuration management database entry for said configurable unit according to said new data set and said confidence factors. receiving from a plurality of sources including at least one configuration management database a plurality of configuration data sets pertaining to the same configurable unit, said configurable unit having a plurality of configurable elements; assigning weight values to configurable elements reported in said data sets using one or more weighting rules and preferences, wherein each configurable element is assigned a weight value based on its likelihood of being correct; creating a new configuration data set for said configurable unit by selecting configurable elements having greater assigned weight values; assigning a confidence factor to each configurable element in said new configuration data set by analysing the assigned weight values and range of differences of the weight values between the plurality of data sets; and updating a configuration management database entry for said configurable unit according to said new data set and said confidence factors.
A method of installing a cable in a duct wherein the cable is inserted into the duct by pushing means (36, 38) and by a launching apparatus including a source of pressurized air for propelling the cable at least in part by pressurized air blowing-assisted transport through the duct, wherein the cable is lubricated by a cable lubricator comprising a lubrication compartment comprising the steps: pushing the cable by means arranged in the launching apparatus; connecting the launching apparatus in airflow communication with the duct through the lubrication compartment of the cable lubricator; running the cable through the lubrication compartment after the cable exits from the launching apparatus; pressurizing the lubrication compartment with pressurized airflow from the launching apparatus; and applying a viscous lubricant to the cable as the cable moves through the pressurized lubrication compartment.
A measuring device (3000, 5000, 6000) for measuring reflection in an optical fiber, the device comprising: emitting means connected to the optical fiber and configured to emit light into the optical fiber, measuring means (3300, 5300, 6300) connected to the optical fiber and configured to receive a reflected light from the optical fiber, wherein the measuring means comprises a first photon detector and a second photon detector, the measuring means comprises a beam splitter configured to connect the optical fiber to both the first photon detector and the second photon detector, wherein the operation of the second photon detector and/or the reflected light reaching the second photon detector is controlled based on an output of the first photon detector, an optical delay element, connected between the optical fiber and the second photon detector, wherein the optical delay element introduces a delay (ΔT2) on the reflected light which is equal to, or longer than, a time required by the first photon detector to detect the reflected light. emitting means connected to the optical fiber and configured to emit light into the optical fiber, measuring means (3300, 5300, 6300) connected to the optical fiber and configured to receive a reflected light from the optical fiber, wherein the measuring means comprises a first photon detector and a second photon detector, the measuring means comprises a beam splitter configured to connect the optical fiber to both the first photon detector and the second photon detector, wherein the operation of the second photon detector and/or the reflected light reaching the second photon detector is controlled based on an output of the first photon detector, an optical delay element, connected between the optical fiber and the second photon detector, wherein the optical delay element introduces a delay (ΔT2) on the reflected light which is equal to, or longer than, a time required by the first photon detector to detect the reflected light.
An exhaust gas purification system for an internal combustion engine characterized by comprising: a first SCR catalyst that is arranged in an exhaust passage of the internal combustion engine and is an NOx selective reduction catalyst to selectively reduce NOx in an exhaust gas by using ammonia as a reducing agent; a second SCR catalyst that is arranged in the exhaust passage at a location downstream of said first SCR catalyst and is an NOx selective reduction catalyst to selectively reduce NOx in the exhaust gas by using ammonia as a reducing agent; a supply device that supplies ammonia or a precursor of ammonia to said first SCR catalyst; and a control device configured to carry out temperature rise control in which the temperature of said first SCR catalyst is controlled to be equal to or greater than a predetermined temperature; wherein said control device is configured to start said temperature rise control when an amount of ammonia adsorbed by said second SCR catalyst is equal to or larger than a temperature rise start threshold value. a first SCR catalyst that is arranged in an exhaust passage of the internal combustion engine and is an NOx selective reduction catalyst to selectively reduce NOx in an exhaust gas by using ammonia as a reducing agent; a second SCR catalyst that is arranged in the exhaust passage at a location downstream of said first SCR catalyst and is an NOx selective reduction catalyst to selectively reduce NOx in the exhaust gas by using ammonia as a reducing agent; a supply device that supplies ammonia or a precursor of ammonia to said first SCR catalyst; and a control device configured to carry out temperature rise control in which the temperature of said first SCR catalyst is controlled to be equal to or greater than a predetermined temperature; wherein said control device is configured to start said temperature rise control when an amount of ammonia adsorbed by said second SCR catalyst is equal to or larger than a temperature rise start threshold value.
A method, performed by a first network node in a communication network, the first network node being connected to a second network node of the communication network via an interface implementing a GPRS Tunnelling Protocol, GTP, the method comprising: selecting a user data packet for transmission to the second network node, the user data packet being part of a traffic flow having Quality of Service requirements specific to a Radio Access Technology, RAT; identifying information about the user data packet which impacts how the user data packet should be routed over the interface, the information at least comprising RAT-specific QoS information corresponding to the QoS requirements, characterised by encoding the identified information into a User Datagram Protocol, UDP, header of the user data packet; and forwarding the user data packet to the interface for transmission to the second network node. selecting a user data packet for transmission to the second network node, the user data packet being part of a traffic flow having Quality of Service requirements specific to a Radio Access Technology, RAT; identifying information about the user data packet which impacts how the user data packet should be routed over the interface, the information at least comprising RAT-specific QoS information corresponding to the QoS requirements, characterised by encoding the identified information into a User Datagram Protocol, UDP, header of the user data packet; and forwarding the user data packet to the interface for transmission to the second network node.
A method performed by an access and mobility management function, AMF, the method comprising: receiving (325, 425), from a terminal, a first message for requesting a registration of the terminal, the first message comprising information for indicating preference for mobile initiated communication only, MICO, mode; transmitting (340, 440), to a network data analytics function, NWDAF, a second message for requesting analytics information on the terminal; receiving (345, 445), from the NWDAF, a third message including the analytics information on the terminal, as a response to the second message; and determining (360, 460) whether the MICO mode is allowed for the terminal based on the analytics information on the terminal, wherein the analytics information comprises first analytics on a terminal communication pattern parameter, second analytics on an expected terminal behavioral parameter, and reliability for the first analytics and the second analytics. receiving (325, 425), from a terminal, a first message for requesting a registration of the terminal, the first message comprising information for indicating preference for mobile initiated communication only, MICO, mode; transmitting (340, 440), to a network data analytics function, NWDAF, a second message for requesting analytics information on the terminal; receiving (345, 445), from the NWDAF, a third message including the analytics information on the terminal, as a response to the second message; and determining (360, 460) whether the MICO mode is allowed for the terminal based on the analytics information on the terminal, wherein the analytics information comprises first analytics on a terminal communication pattern parameter, second analytics on an expected terminal behavioral parameter, and reliability for the first analytics and the second analytics.
A shape measuring apparatus comprising: a first light source configured to emit visible light; a second light source configured to emit measurement light used in a measurement, wherein the measurement light is invisible light; an optical system configured to emit the visible light and the measurement light at the same position on a work piece, wherein the optical system is further configured to sweep the visible light and the measurement light in a straight line form; an image capturer configured to capture an image of the measurement light reflected by the work piece; and a controller configured to control the emission of the visible light onto the work piece with the first light source when determining a measurement position, and further configured, when the measurement position has been decided, to set the first light source to a deactivated state, such that it stops emitting the visible light, and next to control the emission of the measurement light onto the work piece with the second light source when making the measurement. a first light source configured to emit visible light; a second light source configured to emit measurement light used in a measurement, wherein the measurement light is invisible light; an optical system configured to emit the visible light and the measurement light at the same position on a work piece, wherein the optical system is further configured to sweep the visible light and the measurement light in a straight line form; an image capturer configured to capture an image of the measurement light reflected by the work piece; and a controller configured to control the emission of the visible light onto the work piece with the first light source when determining a measurement position, and further configured, when the measurement position has been decided, to set the first light source to a deactivated state, such that it stops emitting the visible light, and next to control the emission of the measurement light onto the work piece with the second light source when making the measurement.
Method for charging a zinc-air battery comprising at least a negative electrode, a first positive air electrode and a second positive oxygen evolution electrode, characterized in that the potential of the negative electrode during charging is kept at an absolute value less than or equal to the value of a critical charging potential, said critical charging potential can be comprised between 1.45 V and 1.70 V, and the potential of the negative electrode is measured relative to a reference electrode, said reference electrode being the air electrode of the battery which is not used during charging.