Abstract: The present technology relates to an encoding device and method, a decoding device and method, and a program therefor capable of improving audio signal transmission efficiency. An identification information generation unit determines whether or not an audio signal is to be encoded on the basis of the audio signal, and generates identification information indicating the determination result. An encoding unit encodes only audio signals determined to be encoded. A packing unit generates a bit stream containing the identification information and encoded audio signals. As a result of storing only encoded audio signals in the bit stream and storing the identification information indicating whether or not the respective audio signals are to be encoded in the bit stream in this manner, the transmission efficiency of audio signals can be improved. The present technology can be applied to an encoder and a decoder.

Abstract: The present technique relates to an encoding device and a method, a decoding device and a method, and a program capable of obtaining higher quality audio. An encoding unit encodes position information and a gain of an object in a current frame in multiple encoding modes. A compressing unit generates, for each combination of encoding modes of each pieces of position information and gains, encoded meta data including encoding mode information indicating the encoding modes and encoded data which are the encoded position information and gains, and compresses the encoding mode information included in the encoding meta data. A determining unit selects encoded meta data of which amount of data is the least from among the encoded meta data generated for each combination, thus determining the encoding mode of each pieces of position information and gains. The present technique can be applied to an encoder and a decoder.

Abstract: An audio signal processing decoder having at least one frequency band and being configured for processing an input audio signal having a plurality of input channels in the at least one frequency band, wherein the decoder is configured to analyze the input audio signal, wherein inter-channel dependencies between the input channels are identified; and to align the phases of the input channels based on the identified inter-channel dependencies, wherein the phases of input channels are the more aligned with respect to each other the higher their inter-channel dependency is; and to downmix the aligned input audio signal to an output audio signal having a lesser number of output channels than the number of the input channels.

Abstract: An apparatus for generating one or more audio channels is provided. The apparatus comprises a metadata decoder for generating one or more reconstructed metadata signals from one or more processed metadata signals depending on a control signal, wherein each of the one or more reconstructed metadata signals indicates information associated with an audio object signal of one or more audio object signals, wherein the metadata decoder is configured to generate the one or more reconstructed metadata signals by determining a plurality of reconstructed metadata samples for each of the one or more reconstructed metadata signals. The apparatus comprises an audio channel generator for generating the one or more audio channels depending on the one or more audio object signals and depending on the one or more reconstructed metadata signals. The metadata decoder is configured to receive a plurality of processed metadata samples of each of the one or more processed metadata signals.

Abstract: A system for generating comfort noise for a stream of frames carrying an audio signal includes frame characterizing logic configured to generate a set of filter parameters characterising the frequency content of a frame; an analysis filter adapted using the filter parameters and configured to filter the frame so as to generate residual samples; an analysis controller configured to cause the residual samples to be stored in a store responsive to receiving an indication that the frame does not comprise speech; and a synthesis controller operable to select stored residual samples from the store and cause a synthesis filter, inverse to the analysis filter and adapted using filter parameters generated by the frame characterizing logic for one or more frames not comprising speech, to filter the selected residual samples so as to generate a frame of comfort noise.

Abstract: An apparatus for decoding an encoded audio signal, includes a spectral domain audio decoder for generating a first decoded representation of a first set of first spectral portions, the decoded representation having a first spectral resolution; a parametric decoder for generating a second decoded representation of a second set of second spectral portions having a second spectral resolution being lower than the first spectral resolution; a frequency regenerator for regenerating every constructed second spectral portion having the first spectral resolution using a first spectral portion and spectral envelope information for the second spectral portion; and a spectrum time converter for converting the first decoded representation and the reconstructed second spectral portion into a time representation.

Abstract: A first vector quantization process may be applied to two or more parameter values along a first dimension of the N-dimensional parameter set to produce a first set of quantized values. Two or more parameter prediction values may be calculated for a second dimension of the N-dimensional parameter set based, at least in part, on one or more values of the first set of quantized values. Prediction residual values may be calculated based, at least in part, on the parameter prediction values. A second vector quantization process may be applied to the prediction residual values to produce a second set of quantized values. These processes may be extended to any number of dimensions. Corresponding inverse vector quantization processes may be performed.

Abstract: Audio encoder for encoding audio input data to obtain audio output data includes an input interface for receiving a plurality of audio channels, a plurality of audio objects and metadata related to one or more of the plurality of audio objects; a mixer for mixing the plurality of objects and the plurality of channels to obtain a plurality of pre-mixed channels, each pre-mixed channel including audio data of a channel and audio data of at least one object; a core encoder for core encoding core encoder input data; and a metadata compressor for compressing the metadata related to the one or more of the plurality of audio objects, wherein the audio encoder is configured to operate in at least one mode of the group of two modes.

Abstract: According to one embodiment, a method of an electronic device for outputting a sound from loudspeakers includes: recording an audio signal comprising voice sections; displaying the voice sections, wherein speakers of the voice sections are visually distinguishable; designating a first voice section of a first speaker; designating a second voice section of a second speaker; outputting signals of the first voice section from the loudspeakers in a first output form; and outputting signals of the second voice section from the loudspeakers in a second output form different from the first output form.

Abstract: Method for improving noise suppression for ASR starts with a microphone receiving an audio signal including speech signal and noise signal. In each frame for frequency band of audio signal, a noise estimator detects ambient noise level and generates noise estimate value based on estimated ambient noise level, variable noise suppression target controller generates suppression target value using noise estimate value and logistic function, a gain value calculator generates a gain value based on suppression target value and noise estimate value, and combiner enhances the audio signal by the gain value to generate a clean audio signal in each frame for all frequency bands. Logistic function models desired noise suppression level that varies based on ambient noise level. Variable level of noise suppression includes low attenuation for low noise levels and progressively higher attenuation for higher noise level. Other embodiments are also described.

Abstract: A method for reducing noise is used to divide a received voice into plural voice segments and set a predetermined energy value. The energy of voice segment which is higher than the predetermined energy value is determined as normal voice and outputs directly, and the energy of voice segment which is lower than the predetermined energy value is determined as noise and will be processed.

Abstract: An acoustic apparatus includes a microelectromechanical system (MEMS) device, a controlled filter coupled to the MEMS device, and an amplifier. The controllable filter and the amplifier are coupled together at a node. A cut-off frequency of the filter is selectable based upon reception or non-reception of a low frequency audio signal by the acoustic apparatus.

Abstract: A method for adjusting a degree of filtering applied to an audio signal includes modeling a probability density function (PDF) of a fast Fourier transform (FFT) coefficient of a primary channel and reference channel of the audio signal; maximizing at least one of PDFs to provide a discriminative relevance difference (DRD) between a noise magnitude estimate of the reference channel and a noise magnitude estimate of the primary channel. The method further includes emphasizing the primary channel when the spectral magnitude of the primary channel is stronger than the spectral magnitude of the reference channel; and deemphasizing the primary channel when the spectral magnitude of the reference channel is stronger than the spectral magnitude of the primary channel.

Abstract: The invention relates to a method for extending the frequency band of an audio signal during a decoding or improvement process comprising a step of decoding or extracting, in a first so-called low frequency band, an excitation signal and coefficients of a linear prediction filter. The method comprises the following steps: —obtaining a signal (UHB2(k), E403)) extended in at least a second frequency band higher than the first frequency band from an oversampled excitation signal extended in at least a second frequency band (UHB1(k), E401); —scaling (E406) the extended signal by means of a gain defined by subframe on the basis of an energy ratio of a frame and of a subframe; —filtering (E404) said scaled extended signal with a linear prediction filter of which the coefficients are derived from the coefficients of the low frequency band filter. The invention also relates to a frequency band extension device implementing the described method and a decoder comprising such a device.

Abstract: The methods and systems described herein predict user behavior based on analysis of a user video communication. The methods include receiving a user video communication, extracting video facial analysis data from the video communication, extracting voice analysis data from the video communication, associating the video facial analysis data with the voice analysis data to determine an emotional state of a user, collecting biographical profile information specific to the user, applying a linguistic-based psychological behavioral model to the spoken words to determine personality type of the user, and inputting the collected biographical profile information, emotional state, and personality type into a predictive model to determine a likelihood of an outcome of the video communication.

Abstract: A method of forming a peg of a NFT, the peg having a tapered portion, the method including depositing a layer of dielectric material; forming a three dimensional shape from at least a portion of the dielectric material the three dimensional shape having two side surfaces and two end surfaces; and depositing plasmonic material on at least one side surface of the three dimensional shape of dielectric material, wherein the plasmonic material deposited on the at least one side surface forms the tapered portion of the peg.

Abstract: The perpendicular magnetic recording head includes a magnetic pole including a first region and a second region, the first region having a first specific resistance and an end surface exposed on an air bearing surface, the second region having a second specific resistance higher than the first specific resistance and being located at a position recessed from the air bearing surface.

Abstract: Devices that include a near field transducer (NFT); an amorphous gas barrier layer positioned on at least a portion of the NFT; and a wear resistance layer positioned on at least a portion of the gas barrier layer.

Abstract: Devices that include a near field transducer (NFT); a multilayer gas barrier layer positioned on at least a portion of the NFT, the multilayer gas barrier layer including at least a first and a second sublayer, where the second gas barrier sublayer is positioned on the first gas barrier sublayer, the first gas barrier sublayer is positioned adjacent the NFT and the second gas barrier sublayer is positioned adjacent the wear resistant layer, the first and second sublayers independently have thicknesses from 0.01 nm to 5 nm; and a wear resistance layer positioned on at least a portion of the gas barrier layer.

Abstract: Devices that include a near field transducer (NFT) including a crystalline plasmonic material having crystal grains and grain boundaries; and nanoparticles disposed in the crystal grains, on the grain boundaries, or some combination thereof, wherein the nanoparticles are oxides of, lanthanum (La), barium (Ba), strontium (Sr), erbium (Er), hafnium (Hf), germanium (Ge), or combinations thereof; nitrides of zirconium (Zr), niobium (Nb), or combinations thereof; or carbides of silicon (Si), aluminum (Al), boron (B), zirconium (Zr), tungsten (W), titanium (Ti), niobium (Nb), or combinations thereof.

Abstract: Devices that include a write pole; a near field transducer (NFT) that includes a peg and a disk, wherein the peg is at the ABS of the device; and a diffusion barrier layer positioned between the write pole and the peg of the NFT, the diffusion barrier layer including metals, nitrides, oxides, carbides, silicides, or amorphous material.

Abstract: A magnetic device according to one embodiment includes a source of flux and a magnetic yoke coupled to the source of flux. The source of flux includes a thin film coil having multiple turns. The magnetic yoke has a pole with two or more gaps, wherein the coil turns have a non-uniform placement in the magnetic yoke for creating a higher magnetic field at one of the gaps than another of the gaps during writing. A magnetic device according to another embodiment includes a source of flux. A geometry of the magnetic pole near or at one of the gaps is different than a geometry of the magnetic pole near or at another of the gaps to help equalize fields formed at the gaps when the source of flux is generating flux.

Abstract: An apparatus according to one embodiment includes a transducer structure having: a lower shield, an upper shield above the lower shield, a current-perpendicular-to-plane sensor between the upper and lower shields, and an insulating layer between the at least one lead and the shield closest thereto. At least one lead is selected from a group including: an upper electrical lead between the sensor and the upper shield and a lower electrical lead between the sensor and the lower shield. The at least one lead is in electrical communication with the sensor. A width of one or more of the at least one lead in a cross track direction is about equal to a width of the sensor.

Abstract: A novel suspension assembly includes a suspension assembly mounting plate, a microactuator mounting structure extending from the suspension assembly mounting plate, a load beam extending from the microactuator mounting structure, and a laminated flexure attached to the load beam. The laminated flexure includes a tongue that has a read head bonding surface. The suspension assembly includes a stainless steel surface having a gold coating, and a piezoelectric microactuator attached to the microactuator mounting structure and electrically connected to the gold coating.

Abstract: A suspension board with circuit includes a slider mounting region configured to mount a slider thereon, a pedestal portion provided in the slider mounting region and configured to support the slider, and a dam portion provided in the slider mounting region and configured to prevent an adhesive fixing the slider from flowing out of the slider mounting region. The thickness of the pedestal portion is thicker than that of the dam portion.

Abstract: A method involves receiving light from a light source at a fundamental transverse electric (TE00) mode or a fundamental transverse magnetic (TM00) mode. A waveguide polarization multiplexes the light to a combined mode that includes the TM00 mode and a first higher-order transverse electric (TE10) mode. A near-field transducer is excited via the light at the combined mode.

Abstract: An apparatus includes a waveguide, a magnetic pole, and a near-field transducer. The near field transducer is positioned at or near a media-facing surface. The near-field transducer is operatively coupled to the waveguide. The near-field transducer includes an enlarged region. The near-field transducer also includes a peg region extending from the enlarged region towards the media-facing surface. The peg region is separated from the magnetic pole. The near-field transducer also includes a structure positioned between the magnetic pole and the peg region. The structure is separated from the peg region by a gap. The structure extends from the enlarged region towards the media-facing surface. The structure is configured to extend generation of surface plasmons toward the magnetic pole.

Abstract: Waveguides that include a top cladding layer; a bottom cladding layer; and a core layer positioned between the top cladding layer and the bottom cladding layer, the core layer including a material having a refractive index of not less than 2.1, for example amorphous hydrogenated silicon carbide (SiC:H), or bismuth titanate. Methods of forming core layers of waveguides are also disclosed.

Abstract: Devices having an air bearing surface (ABS), the device including a near field transducer, the near field transducer having a peg and a disc, the peg having a region adjacent the ABS, the peg including a plasmonic material selected from gold (Au), silver (Ag), copper (Cu), ruthenium (Ru), rhodium (Rh), aluminum (Al), or combinations thereof; and at least one other secondary atom selected from germanium (Ge), tellurium (Te), aluminum (Al), antimony (Sb), tin (Sn), mercury (Hg), indium (In), zinc (Zn), iron (Fe), copper (Cu), manganese (Mn), silver (Ag), chromium (Cr), cobalt (Co), and combinations thereof, wherein a concentration of the secondary atom is higher at the region of the peg adjacent the ABS than a concentration of the secondary atom throughout the bulk of the peg. Methods of forming NFTs are also disclosed.

Abstract: A control mechanism may control the height and/or position of a read/write head configured to interact with a rotating information storage surface. A computation unit may compute a detected topography from gap measurements using a dynamic filter including a model of read/write head dynamics. A sensor may detect gap measurements of a side read/write track while the read/write head is interacting with a current read/write track. A memory may store the detected topography. The control mechanism may adjust the height of the read/write head based on the detected and/or stored topography. The control mechanism may be a reactionless control mechanism configured to apply a counterforce to offset movements of the read/write head and/or a slider.

Abstract: A write head having a write pole with a tip portion defining a pole tip and a paddle portion extending from the tip portion away from the pole tip, the paddle portion defining a back edge. The write head also has a coil structure having at least two active turns crossing the paddle portion, wherein a back of the coil structure is no more than 1 micrometer past the back edge of the write pole. In some implementations, a length from the pole tip to the back edge is no more than 4.5 micrometers.

Abstract: A near-field transducer is situated at or proximate an air bearing surface of the apparatus and configured to facilitate heat-assisted magnetic recording on a medium. The near-field transducer includes an enlarged region comprising plasmonic material and having a first end proximate the air bearing surface. The near-field transducer also includes a disk region adjacent the enlarged region and having a first end proximate the air bearing surface. The disk region comprises plasmonic material. A peg region extends from the first end of the disk region and terminates at or proximate the air bearing surface. The near-field transducer further includes a region recessed with respect to the peg region. The recessed region is located between the peg region and the first end of the enlarged region.

Abstract: Methods to pattern substrates with dense periodic nanostructures that combine top-down lithographic tools and self-assembling block copolymer materials are provided. According to various embodiments, the methods involve chemically patterning a substrate, depositing a block copolymer film on the chemically patterned imaging layer, and allowing the block copolymer to self-assemble in the presence of the chemically patterned substrate, thereby producing a pattern in the block copolymer film that is improved over the substrate pattern in terms feature size, shape, and uniformity, as well as regular spacing between arrays of features and between the features within each array compared to the substrate pattern. In certain embodiments, the density and total number of pattern features in the block copolymer film is also increased. High density and quality nanoimprint templates and other nanopatterned structures are also provided.

Abstract: According to one embodiment, a magnetic recording and reproducing device includes a magnetic recording medium, a recording unit, and a reproducing unit. The magnetic recording medium includes a first track including first and second sub-tracks extending in a first direction. The second sub-track is arranged with the first sub-track in a second direction intersecting the first direction. The recording unit records information in the first and second sub-tracks. The reproducing unit reproduces the information recorded in the first and second sub-tracks while opposing the first, second sub-tracks, and a boundary between the first and second sub-tracks. The first sub-track includes first magnetic recording components including first and second components. The second sub-track includes second magnetic recording components including third and fourth components. A first recording symbol is formed of the first and third components. A second recording symbol is formed of the second and fourth components.

Abstract: A computer-implemented method for creation of a video project includes uploading a starting video to a data storage of a media management server, the starting video having a plurality of starting frames each having a distinct starting video time stamp, generating a first user interface to a media display of a first client computing device, presenting the starting video through the first user interface, modifying the starting video in response to user input through the first user interface to produce an updated video having a plurality of updated frames each having a distinct updated video time stamp, associating one or more comments to the updated and starting frames, and presenting the one or more comments along with the starting video and the updated video through the first user interface as a topical, chronological thread in accordance with the chronologic indicators.

Abstract: An automated video editing apparatus and software are presented. The apparatus is designed to modify automated video recording systems enabling them to collect data used in creating a library of markers observable within the collected data such that the markers may help to identify highlight moments in recorded videos and to create short video clips of the highlight moments. The apparatus and method as described free the user of the burden of reviewing many hours of video recordings of non-events, such as waiting for a sportsman's turn in a competition or waiting for an exciting wave while surfing in the sea.

Abstract: Average pixel luminosity is calculated for each frame comprising a content item. For each pair of adjacent frames, an IFD is calculated. The IFD represents the difference between a baseline pixel luminosity associated with each of the two frames. An initial set of cut frames is selected based on IFD values that are less than a minimum value IFDmin, or that are greater than a maximum value IFDmax. The positions of these initial cut frames are optimized using a numerical optimization technique that favors removal of frames corresponding to IFD extrema, but that also attempts to maintain a minimum time gap between cut frames. Selecting frames for removal is approached as a constraint minimization problem. Once an optimized set of cut frames is established, audio is cut and crossfaded in a temporal window surrounding cut frame positions.

Abstract: Cyclical pixel-based remapping techniques are disclosed for efficiently creating and displaying a video summary. Cyclical temporal remapping at the pixel level requires less processing power and eliminates the need for object identification and tracking, allowing for dynamic adjustment of summary video parameters while a user is viewing the summary video. An operator can select an archived camera feeds or video file, specify a time compression ratio or time interval over which to review video content, specify a motion sensitivity threshold, and then view a significantly condensed summary video that depicts all activity from the source video within a much shorter timeline. Furthermore, activity co-occurrence is preserved such that any activities that co-occur in the source video will also co-occur in the summary video.

Abstract: Provided are a method and device for adjusting playback progress of a video file. The method includes: receiving text information to be searched; searching, in a caption file of the video file, for caption content matching the text information, wherein the caption file is acquired from the video file or generated according to the video file; and determining playback time point corresponding to the caption content according to the found caption content, and adjusting the playback progress of the video file according to the playback time point. According to the technical solution provided in the disclosure, accurate positioning of a clip which a user expects to replay is achieved, and the operation is simple and convenient.

Abstract: Various embodiments identify differences between frame sequences of a video. For example, to determine a difference between two versions of a video, a fingerprint of each frame of the two versions is generated. From the fingerprints, a run-length encoded representation of each version is generated. The fingerprints which appear only once (i.e., unique fingerprints) in the entire video are identified from each version and compared to identify matching unique fingerprints across versions. The matching unique fingerprints are sorted and filtered to determine split points, which are used to align the two versions of the video. Accordingly, each version is segmented into smaller frame sequences using the split points. Once segmented, the individual frames of each segment are aligned across versions using a dynamic programming algorithm. After aligning the segments at a frame level, the segments are reassembled to generate a global alignment output.

Abstract: Subject matter disclosed herein may relate to word line electrodes and/or digit line electrodes in a cross-point array memory device. One or more word line electrodes may be configured to form a socket area to provide connection points to drivers and/or other circuitry that may be located within a footprint of an array of memory cells.

Abstract: A semiconductor device includes a first semiconductor chip located over a substrate; and a second semiconductor chip located over the first semiconductor chip, wherein the first semiconductor chip includes a first internal power supply generation circuit that generates a first internal power supply voltage supplied to a first internal circuit; a first penetration electrode formed from an upper surface of the first semiconductor chip to an underside of the first semiconductor chip and electrically connected to the first internal power supply generation circuit; a first reference voltage generation circuit that generates a first reference voltage; and a second penetration electrode formed from the upper surface of the first semiconductor chip to the underside of the first semiconductor chip and electrically connected to the first reference voltage generation circuit.

Abstract: A nonvolatile memory device may include a power-on reset signal generation unit suitable for receiving a power supply voltage, and generating a power-on reset signal that changes based on the power supply voltage, and a discharging signal generation unit suitable for generating a discharging signal for discharging a word line to be activated earlier than an activation timing of the power-on reset signal when the power supply voltage decreases.

Abstract: Some embodiments of the present invention may include one, or more, of the following features, characteristics or advantages: (i) latch device including multiple Ecrit material regions all electrically connected to a common terminal (sometimes structured and shaped in the form of a storage plate conductor); (ii) bi-stable three-terminal latch device using two Ecrit property regions; (iii) three-terminal, two-Ecrit-region latch device where, for each Ecrit region, (Vdd?Vss) divided by (region thickness, dn) is greater than the region's Ecrit value; or (iv) use of multiple Ecrit material region latch devices to provide data storage instrumentality in a static memory device.

Abstract: A calibration memory control method of an ECU connected to an external calibration device may include receiving a download command from the external calibration device, checking a sub reference page corresponding to the download command, determining whether a sub working page corresponding to the checked sub reference page is allocated, allocating the sub working page corresponding to the checked sub reference page to a RAM region upon determining that the sub working page is not allocated, and copying data stored in the checked sub reference page to the allocated sub working page. As such, according to the present invention, restrictive memory resources may be efficiently used for calibration.

Abstract: In an example, a control device includes a data path, a clock path, a multiplexing circuit, and a calibration unit. The data path comprises a data delay unit coupled to a data input of a sampling circuit. The clock path comprises a clock delay unit coupled to a clock input of the sampling circuit. The multiplexing circuit selectively couples a reference clock or a data bus to an input of the data delay unit, and selectively couples the reference clock or a source clock to an input of the clock delay unit. The calibration unit is coupled to a data output of the sampling circuit. The calibration unit is operable to adjust delay values of the data delay unit and the clock delay unit based on the data output of the sampling circuit to establish and maintain a relative delay between the data path and the clock path.

Abstract: A memory device comprises a memory array, at least one row address buffer, a set of row data buffers, a row decoder, an array of sense amplifiers, and a demultiplexer. The memory array comprises data elements organized into rows and columns. Each of the rows is addressable by a row address. Each of the data elements in each of the rows is addressable by a column address. The at least one row address buffer holds a selected row address of a set of successive selected row addresses. The set of row data buffers holds respective contents of selected rows that correspond to the set of successive selected row addresses. The row decoder decodes the selected row address to access a selected row. The array of sense amplifier reads the selected row and transmits content of the selected row to one of the row data buffers through the demultiplexer, and writes the content of the selected row back to the selected row.

Abstract: A magnetic memory device includes a reference magnetic pattern having a magnetization direction fixed in one direction, a free magnetic pattern having a changeable magnetization direction, and a tunnel barrier pattern disposed between the free and reference magnetic patterns. The free magnetic pattern has a first surface being in contact with the tunnel barrier pattern and a second surface opposite to the first surface. The magnetic memory device further includes a sub-oxide pattern disposed on the second surface of the free magnetic pattern, and a metal boride pattern disposed between the sub-oxide pattern and the second surface of the free magnetic pattern. The magnetization directions of the free and reference magnetic patterns are substantially perpendicular to the first surface of the free magnetic pattern.

Abstract: A resistance change memory includes a memory cell array comprising memory cells including magnetic tunnel junction (MTJ) elements; a write and read circuit which performs a write operation and a read operation for the memory cells; a temperature sensor which outputs temperature information corresponding to a temperature of the memory cell array; and a memory controller which controls the write operation and the read operation by the write and read circuit in response to the temperature information, such that a first time period from a write command input to a pre-charge command input is variable according to the temperature information, while a second time period from an active command input to the pre-charge command input is fixed constant regardless of the temperature information.

Abstract: In one aspect, a method includes receiving a differential strobe signal including first and second components; buffering, by a first buffer, both the first and second components; and buffering, by a second buffer, the first component. The method includes receiving, by a control logic block, the output of the second buffer. The method includes, after a period when the values of both the first and second components are at a first logic state, but before receiving a burst of clock edges in the differential strobe signal, detecting a transition in the first component from the first logic state to a second logic state, and in response to the detected transition, asserting an enable signal. The method further includes receiving, by a gating logic block, the enable signal and the output of the first buffer, and, when the enable signal is asserted, un-gating the output of the first buffer.