mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding input audio signals, the method comprising: deriving, from one or more input signals, a baseband signal and a residual signal, the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands wherein the set of second frequency subbands comprises higher-frequency subbands, and wherein the set of first frequency subbands comprises lower-frequency subbands: calculating, for each frequency subband in the set of second frequency subbands of the residual signal, a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal; generating, for each frequency subband in the set of second frequency subbands of the residual signal, a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal; encoding the baseband signal, along with control information, into an encoded signal, the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal. deriving, from one or more input signals, a baseband signal and a residual signal, the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands wherein the set of second frequency subbands comprises higher-frequency subbands, and wherein the set of first frequency subbands comprises lower-frequency subbands: calculating, for each frequency subband in the set of second frequency subbands of the residual signal, a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal; generating, for each frequency subband in the set of second frequency subbands of the residual signal, a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal; encoding the baseband signal, along with control information, into an encoded signal, the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal.
In-ear earphone with a plug area with at least one sound opening and an outer area adapted to lie outside the auditory canal of the user when in use and with at least two electroacoustic transducers (1, 12), a first transducer being arranged in the plug area and at least a second transducer in the outer area, the first transducer lying in the sound path of the at least one second transducer, characterized in that, a separating part, is provided between the first transducer and the sound opening, through which an inner sound path for the first transducer and a sound path enclosing the inner sound path with an annular cross-section for the at least second transducer is formed, and that a filter disk is arranged in the sound opening, in which an acoustic friction (13b, 13a) is provided for each of the two sound paths (3, 16), and in that the separating part abuts the filter disk.
A carriage for a printing system or a scanning system, the carriage comprising a housing being the carriage to move relative to a carriage beam along a scan direction, the carriage comprising: - a drive mechanism to move the carriage; - an alignment guide comprising a first flat surface and a second flat surface; and - a slider remote from the alignment guide, the slider having an upper surface, wherein the alignment guide and the slider are parallel to the carriage beam and attachable to the carriage beam at different relative distances and wherein the carriage comprises a plurality of rolling elements including a first rolling element, a second rolling element, and a third rolling element, being the first rolling element to contact the first flat surface, the second rolling element to contact the second flat surface and the third rolling element to contact the upper surface of the slider. - a drive mechanism to move the carriage; - an alignment guide comprising a first flat surface and a second flat surface; and - a slider remote from the alignment guide, the slider having an upper surface,
An apparatus for processing battery cell voltage data, the apparatus comprising: a voltage data acquiring unit configured to acquire voltage data by measuring voltage applied from one or more battery cells; a weight processing unit configured to calculate a weight corresponding to each voltage data acquired by the voltage data acquiring unit and assign the weight to the corresponding voltage data; a moving average calculating unit configured to calculate a moving average of one or more voltage data to which the weights are assigned; and a voltage data processing unit configured to acquire voltage data by using the voltage data acquired by the voltage data acquiring unit to the moving average, characterized in that the weight is calculated based on a number of voltage data acquired by the voltage data acquiring unit, wherein when the voltage data acquiring unit acquires n voltage data, n being a positive integer, the weight processing unit is configured to assign a weight weighted at n times to the voltage data acquired at an n-th time. a voltage data acquiring unit configured to acquire voltage data by measuring voltage applied from one or more battery cells; a weight processing unit configured to calculate a weight corresponding to each voltage data acquired by the voltage data acquiring unit and assign the weight to the corresponding voltage data; a moving average calculating unit configured to calculate a moving average of one or more voltage data to which the weights are assigned; and a voltage data processing unit configured to acquire voltage data by using the voltage data acquired by the voltage data acquiring unit to the moving average, characterized in that the weight is calculated based on a number of voltage data acquired by the voltage data acquiring unit, wherein when the voltage data acquiring unit acquires n voltage data, n being a positive integer, the weight processing unit is configured to assign a weight weighted at n times to the voltage data acquired at an n-th time.
A robot, comprising a multi-articular arm; and a base selectively mountable on at least one installation surface among a floor surface and a wall surface, the base comprising: a body supporting a base end portion of the multi-articular arm and comprising: a first supported surface disposed on a first side surface of the body; and a second supported surface disposed on a second side surface of the body opposed to the first side surface of the body; characterized by a first bracket supporting the first supported surface of the body and fixing the body to the installation surface; and a second bracket supporting the second supported surface of the body and fixing the body to the installation surface, wherein the body, the first bracket, and the second bracket each comprise a mounting member that makes the first bracket and the second bracket interchangeable with each other on the body to make the body selectively mountable on the floor surface and the wall surface while maintaining a posture of the body. a multi-articular arm; and a base selectively mountable on at least one installation surface among a floor surface and a wall surface, the base comprising: a body supporting a base end portion of the multi-articular arm and comprising: a first supported surface disposed on a first side surface of the body; and a second supported surface disposed on a second side surface of the body opposed to the first side surface of the body; a first supported surface disposed on a first side surface of the body; and a second supported surface disposed on a second side surface of the body opposed to the first side surface of the body; characterized by a first bracket supporting the first supported surface of the body and fixing the body to the installation surface; and a second bracket supporting the second supported surface of the body and fixing the body to the installation surface, wherein the body, the first bracket, and the second bracket each comprise a mounting member that makes the first bracket and the second bracket interchangeable with each other on the body to make the body selectively mountable on the floor surface and the wall surface while maintaining a posture of the body. a first bracket supporting the first supported surface of the body and fixing the body to the installation surface; and a second bracket supporting the second supported surface of the body and fixing the body to the installation surface, wherein the body, the first bracket, and the second bracket each comprise a mounting member that makes the first bracket and the second bracket interchangeable with each other on the body to make the body selectively mountable on the floor surface and the wall surface while maintaining a posture of the body.
A master communication device comprising: an improved inter integrated, I3C, circuitry configured to communicate with a slave communication device via a bus, the master communication device controlling the communication between the slave communication device and the master communication device, and detect a communication error between the master communication device and the slave communication device communicating via the bus; and a camera control interface, CCI, configured to communicate with the improved inter integrated circuitry, read and write data in accordance with an index, receive a notification from the improved inter integrated circuitry, the notification being indicative of the communication error between the master communication device and the slave communication device detected by the improved inter integrated circuitry, and clear the index based on the notification. an improved inter integrated, I3C, circuitry configured to communicate with a slave communication device via a bus, the master communication device controlling the communication between the slave communication device and the master communication device, and detect a communication error between the master communication device and the slave communication device communicating via the bus; and a camera control interface, CCI, configured to communicate with the improved inter integrated circuitry, read and write data in accordance with an index, receive a notification from the improved inter integrated circuitry, the notification being indicative of the communication error between the master communication device and the slave communication device detected by the improved inter integrated circuitry, and clear the index based on the notification.
A composition in the form of an O/W emulsion, comprising: (a) at least one UV filter; (b) at least one inulin modified with hydrophobic chains; (c) at least one sugar ether surfactant; (d) at least one hydrophilic acrylic polymer selected from the group consisting of sodium acrylate/sodium acryloyldimethyl taurate copolymer, acrylamide/sodium acryloyldimethyltaurate copolymer, ammonium polyacryloyldimethyl taurate, ammonium acryloyldimethyl taurate/VP copolymer, and combinations thereof; and (e) water. (a) at least one UV filter; (b) at least one inulin modified with hydrophobic chains; (c) at least one sugar ether surfactant; (d) at least one hydrophilic acrylic polymer selected from the group consisting of sodium acrylate/sodium acryloyldimethyl taurate copolymer, acrylamide/sodium acryloyldimethyltaurate copolymer, ammonium polyacryloyldimethyl taurate, ammonium acryloyldimethyl taurate/VP copolymer, and combinations thereof; and (e) water.
A method of providing alert information, regarding an aircraft wheel braking system, to an operator of an aircraft during an aircraft landing, characterized by the following steps: receiving a manually-entered input from the operator of the aircraft of a target deceleration rate for said landing aircraft, said input being received prior to said aircraft having landed on a ground surface, wherein said input is received by an independent electronic device that is in physical connection with said aircraft but does not receive any electronic data communication input from said aircraft; electronically collecting, via at least one sensor on the independent electronic device, information relevant to a real-time deceleration rate of said aircraft after said aircraft has landed on said ground surface; calculating the real-time deceleration rate of said aircraft; comparing said target deceleration rate to the calculated deceleration rate to determine an effectiveness of said aircraft wheel braking system; and providing, via the independent electronic device, a visual, audible, or tactile alert to the operator of the aircraft if the effectiveness of said aircraft wheel braking system is different than an anticipated amount. receiving a manually-entered input from the operator of the aircraft of a target deceleration rate for said landing aircraft, said input being received prior to said aircraft having landed on a ground surface, wherein said input is received by an independent electronic device that is in physical connection with said aircraft but does not receive any electronic data communication input from said aircraft; electronically collecting, via at least one sensor on the independent electronic device, information relevant to a real-time deceleration rate of said aircraft after said aircraft has landed on said ground surface; calculating the real-time deceleration rate of said aircraft; comparing said target deceleration rate to the calculated deceleration rate to determine an effectiveness of said aircraft wheel braking system; and providing, via the independent electronic device, a visual, audible, or tactile alert to the operator of the aircraft if the effectiveness of said aircraft wheel braking system is different than an anticipated amount.
A microwave discharge lamp apparatus which comprises: a rectangular waveguide having a rectangular shape one end of which is closed and the other end is open and receiving a microwave through an opening to put out linearly polarized microwaves of a rectangular TE10 mode; a discharge lamp; a resonator cavity, formed in a cylindrical shape, one end of which is open, which is disposed to surround the discharge lamp, and which is made of a conductive mesh, thereby allowing the passage of the light from the discharge lamp; and a phase shifter 130), which has a cross-shaped waveguide opened in a propagation direction of the linearly polarized microwaves and which has a depth H for converting linearly polarized microwaves into elliptically polarized microwaves, is disposed between the other end of the rectangular waveguide and one end of the resonator cavity, and receives the linearly polarized microwaves from the rectangular waveguide to generate elliptically polarized microwaves of a circular TE11 mode in the cylindrical resonator cavity, and wherein the elliptically polarized microwaves discharge the discharge lamp, wherein the cross-shaped waveguide includes a first waveguide and a second waveguide intersecting each other, wherein the length of the longer side of the cross section of the first waveguide is longer than the length of the longer side of the cross section of the second waveguide. a rectangular waveguide having a rectangular shape one end of which is closed and the other end is open and receiving a microwave through an opening to put out linearly polarized microwaves of a rectangular TE10 mode; a discharge lamp; a resonator cavity, formed in a cylindrical shape, one end of which is open, which is disposed to surround the discharge lamp, and which is made of a conductive mesh, thereby allowing the passage of the light from the discharge lamp; and a phase shifter 130), which has a cross-shaped waveguide opened in a propagation direction of the linearly polarized microwaves and which has a depth H for converting linearly polarized microwaves into elliptically polarized microwaves, is disposed between the other end of the rectangular waveguide and one end of the resonator cavity, and receives the linearly polarized microwaves from the rectangular waveguide to generate elliptically polarized microwaves of a circular TE11 mode in the cylindrical resonator cavity, and wherein the elliptically polarized microwaves discharge the discharge lamp, wherein the cross-shaped waveguide includes a first waveguide and a second waveguide intersecting each other, wherein the length of the longer side of the cross section of the first waveguide is longer than the length of the longer side of the cross section of the second waveguide.
A method of investigating a specimen using a tomographic imaging apparatus comprising: - A specimen holder, for holding the specimen; - A source, for producing a beam of radiation that can be directed at the specimen; - A detector, for detecting a flux of radiation transmitted through the specimen from the source; - A stage apparatus, for producing relative motion of the source with respect to the specimen, so as to allow the source and detector to image the specimen along a series of different viewing axes, which intersect a virtual reference surface that surrounds the specimen and is substantially centered thereon, thereby generating a corresponding set of sampling points; - A processing apparatus, for assembling output from the detector into a tomographic image of at least part of the specimen, the method being characterized by the following steps: - Selecting said set of sampling points to comprise a two-dimensional lattice of discrete points located areally on said reference surface in a substantially uniform distribution; - Producing said tomographic image using at least one of: • a Back Projection technique in combination with post-Back-Projection space-invariant filtering; • a Multi-Grid Iterative Reconstruction technique in conjunction with space-invariant filtering. - A specimen holder, for holding the specimen; - A source, for producing a beam of radiation that can be directed at the specimen; - A detector, for detecting a flux of radiation transmitted through the specimen from the source; - A stage apparatus, for producing relative motion of the source with respect to the specimen, so as to allow the source and detector to image the specimen along a series of different viewing axes, which intersect a virtual reference surface that surrounds the specimen and is substantially centered thereon, thereby generating a corresponding set of sampling points; - A processing apparatus, for assembling output from the detector into a tomographic image of at least part of the specimen, - Selecting said set of sampling points to comprise a two-dimensional lattice of discrete points located areally on said reference surface in a substantially uniform distribution; - Producing said tomographic image using at least one of: • a Back Projection technique in combination with post-Back-Projection space-invariant filtering; • a Multi-Grid Iterative Reconstruction technique in conjunction with space-invariant filtering. • a Back Projection technique in combination with post-Back-Projection space-invariant filtering; • a Multi-Grid Iterative Reconstruction technique in conjunction with space-invariant filtering.
A light emitting display comprising: a first substrate on which a plurality of light emitting devices comprising first electrodes, organic light emitting layers, and second electrodes are disposed; a second substrate disposed to face the first substrate; a dam member disposed between the first substrate and the second substrate to surround the plurality of light emitting devices; an inorganic sealing material disposed between the first substrate and the second substrate in an outer area of the dam member and attaching the first substrate to the second substrate; and a filling material provided between the first substrate and the second substrate inward of the dam member to be in contact with the second electrodes; characterised in that the filling material is a silicone filling material comprising: between 70wt% and 90wt% of vinyl polymer, between 10wt% and 30wt% of H-polymer; between 0.01wt% and 1.0wt% of a platinum compound, and between 0.01wt% and 1.0wt% of anti-hardening agent. a first substrate on which a plurality of light emitting devices comprising first electrodes, organic light emitting layers, and second electrodes are disposed; a second substrate disposed to face the first substrate; a dam member disposed between the first substrate and the second substrate to surround the plurality of light emitting devices; an inorganic sealing material disposed between the first substrate and the second substrate in an outer area of the dam member and attaching the first substrate to the second substrate; and a filling material provided between the first substrate and the second substrate inward of the dam member to be in contact with the second electrodes; characterised in that the filling material is a silicone filling material comprising: between 70wt% and 90wt% of vinyl polymer, between 10wt% and 30wt% of H-polymer; between 0.01wt% and 1.0wt% of a platinum compound, and between 0.01wt% and 1.0wt% of anti-hardening agent.
Electrically operated slicing machine for cutting off slices from strand shaped material to be cut in particular, preferably foodstuffs, with a cutting device, which comprises a circular knife rotating around a first axis of rotation (x) in a cutting plane, housed in a machine housing, with a stop plate that may be moved in the x direction, arranged parallel to the cutting plane, for setting the cutting thickness, with a carriage carrying a supporting plate with a supporting surface for putting the material to be cut on, which may be driven parallel to the cutting plane E, and with a transport chain operated by means of a transport chain motor for depositing slices of the material to be cut that have been cut off on a depositing table, in which the transport chain may be connected to the machine housing in a detachable way, characterised in that the slicing machine has a sensor device for detecting the current assembly condition of the transport chain.
An RFID ear tag consisting of a tag carrier with a fastening lug which can be attached to the ear of an animal by means of a fastening element, and consisting of an encapsulated RFID transponder, which is arranged inside the tag carrier and which comprises a chip and an antenna, characterised in that the antenna consists of an emitting element, a counterweight formed as a ground surface and an inductive coupling curve, and the chip together with a coupling loop which is connected to contacts of the chip is a chip module which is arranged inside the coupling curve, and the coupling loop is inductively coupled with the coupling curve.