Television System Details TRIZ Cases

A divided capture interface displays a target effect preview alongside recorded media, enriching information while keeping interaction clear.

A converter encodes camera position and orientation as audio data, linking tracking information to video frames for synchronized post-production.

Time-division acquisition captures different radiation energies within one frame to reduce moving-object artifacts in DSA images.

Object detection extends event recordings when license plates, pedestrians, or cyclists appear, preserving useful traffic footage without recording all motion.

Pixel ray paths map precomputed view values onto MPI layers, filling blank areas and preserving color consistency in arbitrary-view rendering.

Perforated glass filters particles, gases, and liquids while transmitting pressure to protect the MEMS membrane.

Adaptive playback speed, selective frame omission, and GOP-aware buffering help web video remain smooth across devices and network conditions.

Role-based 3D models distinguish important virtual-event participants through form, color, and transparency, helping viewers focus on key roles.

A processor matches video output to the display refresh rate, discarding or interpolating frames to balance smooth playback and processing efficiency.

Audio zoom adapts to prior spatial visual edits to suppress residual sound remnants and preserve clear, natural audio.

Overlapping reception, decoding, and display lets clients show video slices early, reducing cloud gaming latency and timing instability.

A selectable multi-clock circuit synchronizes APD pixel exposure periods, reducing luminance variation across the photoelectric conversion array.

IMU data shifts overlaid camera content after capture, reducing motion-to-photon latency during mixed-reality target acquisition.

Visualize defocus across captured images to resolve position-to-position focus ambiguity during intentional defocusing.

Separate reference and camera views let users imitate movements while recording, lowering the skill barrier to video creation.

Substrate deformation can create differential motion in the mass and stators; a shared anchor helps stabilize capacitive angular-velocity detection.

A synchronized monochrome and color camera pair aligns luminance and color data to reduce low-light motion blur and lighting banding.

Users request server recording during a call, then use returned materials to generate a result video with less manual editing.

Zoom- and illuminance-based switching between binning and non-binning modes preserves image definition in high-zoom scenes using Quadra raw processing.

Different video modes use tailored quantization ranges to preserve frame quality, avoid blurring, and keep bit rate within processing capacity.

This case shows how near-field communication lets a reproduction device complete initial settings through a terminal while the display is off.

Fixed video filters miss frame-specific detail; pixel-adaptive filtering restores degraded frames with better quality and rate-distortion performance.

Local alpha maps adjust curved-edge and pinhole pixels to preserve natural display appearance while reducing processing overhead.

The switching circuit splits image data and reallocates output terminal groups, supporting different display resolutions without custom chip variants.

Direct camera icons simplify switching while multiple cameras capture and composite images across depth-of-field ranges.

Initial frames are captured and buffered before encoding starts, preventing omissions while the video pipeline activates.

Bounding boxes convert difficult motion descriptions into spatial control tokens, helping generated video objects follow intended positions.

Gradient-angle sums in a 3×3 neighborhood improve line detection when second-derivative methods miss thicker lines.

The control section divides the phase plane into domains and applies a common Freeform phase distribution to reduce non-uniform light effects.

Zoom-in and zoom-out operations automatically raise or lower recording volume, matching audio with visual proximity for a more immersive playback experience.

Selected-music characteristics drive atmosphere effects in generated videos, expanding gameplay beyond simple karaoke recording.

Manual lens-by-lens calibration limits stabilization at high zoom; this case combines IMU data, replay frames, and lens projection models.

Sequential laser measurements can drift as inactive devices cool; a standby-lit laser preserves temperature for accurate light and chromaticity readings.

Different sensor thresholds separate low- and high-intensity light events for dedicated processing, improving localization accuracy and reducing latency.

An optical splitter directs light to separate sensors, combining image data for precise autofocus without resolution loss.

Uncompressed 4K video strains standard networks; an integrated switch combines buffering, processing, and routing for low-latency transmission.

Pixel-level background hue analysis selects contrasting foreground hues, keeping dynamic logos visible as display backgrounds change.

Partitioned illumination beams receive different intensities to raise projected-image contrast without distortion from excessive image processing.

A global-shutter reference camera supplies gain information to repair rolling-shutter images in the frequency domain and remove brightness flicker.

Converting raw video through demosaicing before RGB or YUV downsampling reduces low-light noise without harming definition or Bayer structure.

Automatic capacity monitoring relocates lower-priority content off-site, freeing local storage without forcing users to delete recordings or upgrade devices.

Background textures are rendered first, then point-cloud foreground objects are superimposed to limit repeated high-resolution image transfers.

Face recognition identifies subjects across separately timed shots, then merges them on a matching background to avoid missed-person rephotography.

A display panel uses coil and piezoelectric exciters across display and bezel areas to project sound forward without enlarging the bezel.

Color-coded flags distinguish set regions during recording, making selected video areas easier to switch while the optical zoom function remains limited.

A look-ahead trajectory smooths device motion before a viewing-window punchout, reducing jerky video while preserving intended movement.

A rectifying member, forced airflow, heat-dissipation fins, and a sheet improve cooling around the recording unit.

Outline emphasis and planarization create a second image for low-vision users alongside a standard processed view.

Divided-aperture channels capture multispectral IR data in one shot, avoiding scanning and cooled detectors for portable gas monitoring.

Motion and texture analysis selects bitrate settings on mobile devices, balancing video quality, upload time, and bandwidth.