Measured loudness metadata replaces preset dialnorm values, enabling accurate gain and dynamic range playback across TVs, AVRs, and mobile devices.
Parallel bandpass filters isolate the harsh 2.5 kHz range for independent compression, improving audio quality without altering other frequencies.
Multi-band compression with surround processing, soft clipping, and crossover tuning improves cheap stereo speakers' spread and fidelity.
Spectral and dynamic analysis adapts EQ and compression templates, reducing manual mixing time while preserving natural sound and user control.
Binaural similarity guides multiband hearing-aid gain so broadband signals sound less loud while narrowband cues remain audible.
Predefined frequency bands and filter banks cut audio processing latency and computation while preserving device-specific sound control.
Band-specific DRC with crossover gain correction suppresses level spikes and reduces audible gain fluctuation in audio processors.
Uniform impulse-response partitioning and fixed-point FFT convolution cut audio latency and memory use while limiting truncation noise.
Frequency-based gain filtering attenuates low audio bands and boosts higher ones to keep small-speaker output louder and more consistent.
Feedback-based excursion estimation adjusts multiband gain to boost bass loudness while protecting the speaker from overtravel.
Selective frequency attenuation and channel-specific volume control let drivers hear approaching sirens without muting in-car audio.
Applies equalizer coefficients to partially decoded frequency data, cutting CPU load versus time-domain audio equalizers.
Shared slow level estimates let paired hearing aids coordinate fast and slow compression, reducing distortion and preserving speech intelligibility.