Physical Layer Frame Format for SC and MC Coexistence

The patent segments the communication system into single carrier mode and multiple carrier mode, allowing the receiver to process signals differently based on the detected mode. This segmentation enables handling of high data rates through multiple carriers while managing delay spread through single carrier processing when appropriate, thus resolving the contradiction between data rate improvement and delay spread complexity.

The patent implements dynamic mode detection and switching capability, where the receiver can detect whether the incoming signal uses single carrier or multiple carrier modulation and adjust its processing accordingly. This dynamic approach allows the system to use multiple carrier modulation for high data rates when needed, while falling back to simpler single carrier processing for lower data rate scenarios, thus managing hardware complexity while maintaining high productivity capability.

The patent creates a universal receiver design that can handle both single carrier and multiple carrier modulation schemes through a common detection and processing architecture. The receiver universally supports both modes by detecting the signal type and applying appropriate processing, allowing the system to achieve low hardware complexity through single carrier operation when sufficient while maintaining the capability for high data rates through multiple carrier operation when needed.

The patent introduces an intermediary detection mechanism that identifies whether the incoming signal uses single carrier or multiple carrier modulation before processing. This intermediary detection layer acts as a mediator between different modulation schemes, allowing devices optimized for specific modes to coexist harmoniously by enabling receiving devices to automatically adapt to the transmitted mode through detection, thus maintaining both device-specific optimization and universal compatibility.