Pulse Transition Encoding for High-Throughput Signal Transmission

The patent segments the signal transmission into distinct pulse events with controlled transitions. By dividing the continuous signal into discrete pulse segments with specific width constraints (not less than minimum pulse width), the system manages inter-symbol interference through structured segmentation rather than continuous modulation, allowing higher data rates while controlling ISI effects

The patent changes the signal representation from traditional amplitude/phase modulation to a parameter-based system where pulse width and transition positions are the key variables. By encoding data in the positions and widths of pulses rather than signal amplitude levels, the system achieves high spectral efficiency while maintaining robustness against inter-symbol interference through parameter optimization

The patent extracts the essential information from complex multi-level signals and represents it using simplified binary pulse presence/absence patterns. By taking out only the critical transition position and pulse width information rather than transmitting full multi-level amplitude data, the system achieves high throughput while maintaining excellent SNR performance through reduced complexity and noise susceptibility

Instead of using traditional approaches where multiple amplitude levels carry multiple bits of information (which reduces SNR), the patent inverts the approach by using the presence, position, and width of binary pulses to encode the same information. This inversion allows achieving high throughput through temporal encoding rather than amplitude encoding, thereby maintaining superior signal-to-noise ratio