Participants are grouped by TV reception path so game and lockout signals can be delay-adjusted for fair synchronized play.
A voltage-dependent resistance element replaces active amplifiers in delta-sigma readout, boosting integration speed while cutting power and noise.
A single actuator vibrates both display panels to project sound in opposite directions while reducing speaker space, interference, and thickness.
Compressive pixel-signal readout captures sparse 3D scene data faster by avoiding full 2D image acquisition and redundant processing.
A boost capacitor raises the floating diffusion voltage during precharge to cut white dot noise, reduce lag, and preserve full well capacity.
Compressive sensing inside the ROIC cuts focal plane array bandwidth and power by sampling and summing selected photodetector signals.
Blending high- and low-sensitivity sensor signals smooths channel transitions, reduces noise mismatch, and preserves wide dynamic range.
Phase-shifted integration of a harmonic-rich source signal approximates sinusoidal components while reducing measurement error and system complexity.
Dynamic clock movement and IQ equalization help a direct conversion tuner avoid spurs while supporting analog and digital TV standards.
When environmental noise masks device audio, ambient sound detection can trigger closed captions automatically to preserve comprehension.
Ambient noise sampling lets a mobile device auto-enable subtitles or adjust playback audio, avoiding cumbersome menu navigation in noisy settings.
Memory buffering and 7-bit serialization cut LVDS transmission speed, enabling faster document scanning over low-cost flat cables.
Dual wideband and narrowband paths keep network channels continuous during mode changes while allowing unused reception paths to power down.
A precharge RC path with a negative-temperature-coefficient resistor stabilizes delay timing across process, voltage, and temperature shifts.
Local frequency multipliers in each pixel-column read path raise image acquisition rate while preserving ADC resolution and easing synchronization.
Varying test voltages across column ADCs exposes power supply noise interference and improves conversion accuracy in pixel array readout.
Selective ramp-up and ramp-down ADC conversion cuts noise, conversion time, and power use in high-resolution CMOS image sensors.
Matched-transistor comparator stages and variable capacitance reduce ADC errors caused by noise, inversion delay, and supply fluctuations.
Test-sound frequency analysis lets a multimedia unit auto-calculate audio compensation for different installation acoustics and sound output.
Embedded environmental impact data lets receivers decode media energy use and guide lower-impact playback, sharing, and offset actions.
Dormant local oscillator sections cut leakage during VCO frequency search, reducing tuner interference and picture noise.
Calibrated delay lines synchronize transducer pulses to improve near-field fingerprint image quality in compact, low-power sensors.
Variable bias in a cascode pixel amplifier offsets reset charge injection and clock feed-through to widen CMOS image sensor output range.
Dynamic bit allocation between oversampling and recursive column AD converters improves image sensor SNR and frame rate without added circuit complexity.
Placing a pilot tone at the ATSC pilot position lets TV band devices detect wireless microphones at low thresholds and avoid interference.
Periodic switching between inversion and accumulation modes cuts RTS and low-frequency noise in MOS sample-and-hold circuits.
Additional column ADCs detect and correct fine ramp errors in MRSS image sensors, cutting conversion time and fixed pattern noise.
Different polysilicon gate dopants set two MOSFET thresholds, giving uniform Schmitt trigger hysteresis with lower area and power.
Repeated low-range ramp generation boosts analog gain in CMOS image sensor ADCs without larger area, lower SNR, or slower conversion.
A light-controlled shunt switch lets retinal implant pixel cells discharge quickly between pulses while preserving stimulation efficiency at higher pulse rates.
By splitting comparison and code storage across stacked substrates, this image sensor cuts ADC area, pixel time lag, and motion distortion.
Ambient noise sensing triggers feedback messages that adjust other devices' volume automatically, reducing manual control and noise interference.
Using gated ring oscillator phase states instead of clock edges, this ADC speeds conversion while preserving resolution and noise performance.
Different TV reception paths are delay-matched so broadcast and lockout signals stay synchronized for fair live skill-game play.
Segmented storage and current circuits improve ramp linearity, cut glitch power, and reduce lost-bit effects in image sensors.
Rotated VHT-SIG constellations and legacy L-SIG signaling reduce preamble overhead while preventing HT STA misdetection in WLAN frames.
Oversampling pixel-to-noise comparisons replaces on-pixel capacitors and A/D converters, preserving dynamic range in dense image sensor arrays.
An asymmetric comparator transistor layout suppresses reference-signal streaking during A/D conversion while preserving low noise in image sensors.
Double-sideband AM side components restore sparse compressed audio to keep kinocilia active and improve auditory perception.
A random offset added to the ADC reference masks column mismatch, reducing vertical stripes and banding in image sensors.
Phase-shifted clock detection and correction delivers 50:50 duty cycles with lower circuit area and current for stable image sensing.
A vehicle vision camera uses a semi-reflective mirror element to direct visible and infrared radiation to separate imagers.
A light-receiving device uses two capacitive elements with different saturation capacities to transfer photoelectric charge for high sensitivity.
Multiple MEMS-IMU arrangements fuse data via Markov chain modeling to reduce drift and noise, enabling accurate surveying in slim-hole environments.
A pixel array uses distinct electrical signal supply units to drive analog-to-digital conversion circuits within each photoelectric conversion element.
A television receiver uses optical character recognition to identify text in video images and generate hypertext links for network access.
Segmented casing and dynamic screen positioning allow cleaning without shutting down the rearview camera.
A motion compensation apparatus shifts interlaced video fields based on camera speed to reduce image blurring.
A photoelectric converter with stacked organic layers uses a voltage application circuit to adjust spectral sensitivity characteristics.
Metal-ceramic multilayer stacks prevent creep deformation and signal drift in MEMS components during high-temperature processing.
Iterative correction removes fixed pattern noise from infrared sensor data, enabling usable imaging despite severe pixel-to-pixel responsivity variations.
Camera assembly positions infrared cut filter near aperture stop with lens elements between it and sensor to reduce back focal distance.
Encoding unit compresses multi-viewpoint image data while association processing unit links sequence and eye number information to the encoded stream.
Stripe structures on plastic barrel inner surfaces control glue application to prevent overflow defects in miniaturized imaging lens modules.
A digital image processing apparatus moves a photoelectric converter between captures to enable median combination of image frames for noise removal.
Bias zones overlaying a virtual map regulate halo image positioning, resolving operator complexity while maintaining framing variety.
Constant angular aperture movement ensures uniform exposure times across the sensor, eliminating measurement errors from uneven iris shutter timing.
A programmable GPU resamples subsampled chroma data to correct pixel positions, eliminating color smearing and restoring 4:4:4 image clarity.
A multi-dimensional translation stage positions an optical image detector to capture collimated light beams for celestial navigation.
Nested mirrors fold the optical path to correct distortion while reducing device size.
Combining main and auxiliary data into one virtual package reduces configuration complexity and time while maintaining full playback control.
A video display device detects light emission areas and enhances their luminance using dynamic backlight control curves.
Processor identifies upscaled images using texture block and energy amount data to remove artifacts from low-resolution sources.
A digital media recorder system adapts stored video content to match specific communication device capabilities through dynamic transcoding operations.
A video processing apparatus selects representative frames to create slide videos.
Segmenting the top case into separate metal and plastic parts resolves the trade-off between structural strength and material cost in display devices.
A protective case combines a rigid transparent back surface with a softer elastomeric bumper for electronic devices.
Separate processing paths for motion and still images adjust exposure time and apply clipping to resolve image quality versus power consumption trade-offs.
A mobile application launcher identifies real-world objects via camera images to automatically launch associated software.
A video preview generator selects nearby pictures for display during skimming operations.
A split aperture optical apparatus merges projector and camera functions into a shared lens assembly for precise image projection.
A notched film cover portion connects to the claw opening, allowing selective removal for transport.
A chroma extracting section sets areas around high luminance points to extract relative color values for processing.
Selective light shielding blocks unwanted photons from reference pixels, reducing dark current noise and improving signal accuracy.
Prestored motion codes eliminate network instability by synchronizing actuators with video timing through reference time comparison.
Linear approximation engine compensates for non-linear sub-pixel distribution skewing to reduce cumulative tracking errors in absolute referencing.
A changing unit adjusts virtual viewpoint parameters based on feature amounts to maintain image quality.
A technique identifies original scan lines within a deinterlaced signal to generate optimized output.
Segmented cooling air paths direct airflow to specific reflector zones and electrode seals, preventing quartz crystallization and extending lamp service life.
A protocol engine generates directed playback instructions from recorded streams to control rendering decisions.
Segmented prism columns in a circular loop plate control illumination light directivity, reducing regular-reflection noise and improving reading precision.
A pixel uses a voltage-controlled capacitor to passively amplify input signals without active transistors.
A flash memory control unit detects faulty blocks and redirects image data to healthy storage areas.
Pixel blocks output signals multiple times while averaging blocks merge them to reduce fixed pattern noise and improve signal-to-noise ratio.
A pixel micro-lens adjusts spectral characteristics via refractive index and absorption modifications to reduce fixed pattern noise in imaging devices.
A wiring board connects to image pickup device electrodes via flying leads bent at a supplementary angle to an inclined surface.
Electronic binocular modules integrate image sensors and displays into smartphone cases for stereoscopic viewing.
Rotation correction and registration modules align wide and scanning tele fields of view, eliminating the jump effect during camera switching.
Coupling a reset transistor to a neighbor's control node merges voltage lines, reducing metal wiring area and boosting photodiode fill factor.
Hardware circuitry aligns differently exposed images via keypoint warping, boosting dynamic range while cutting CPU power consumption.
A video stabilization system rotates visual content using horizontal horizon lines and fixed distant objects to correct rotational motion artifacts.