General-Purpose Processor Parallel Baseband Data Processing

The patent applies universality by enabling general-purpose processors to perform wireless communication data processing tasks that were traditionally handled by dedicated hardware. The system allows a single processor architecture to serve multiple functions: general computing tasks and specialized communication protocols (LTE, WiMAX, WiFi), eliminating the need for separate dedicated hardware for each function.

The patent implements copying by creating virtualized instances of communication processing capabilities through software on general-purpose processors. Instead of physical dedicated hardware for each communication standard, virtual copies of processing functions are created through software layers, allowing multiple virtual processors to handle different communication tasks on shared physical hardware.

The patent applies dynamics by transitioning from static dedicated hardware configurations to dynamic software-based processing on general-purpose processors. The system can dynamically allocate processing resources, change processing algorithms, and adapt to different communication standards and applications through software updates rather than hardware reconfiguration, enabling real-time adaptability.

The patent enables a single processor platform to universally handle multiple communication standards (LTE, WiMAX, WiFi) and different application requirements through software implementation, providing both high processing capacity and broad adaptability without requiring separate dedicated hardware for each standard.

The patent applies segmentation by dividing communication data processing into distinct functional stages (physical layer processing, MAC layer processing, network layer processing) that can be independently optimized and executed in parallel on multiple processor cores. This segmentation allows general-purpose processors to achieve high throughput by processing different data segments simultaneously.

The patent implements continuity of useful action through efficient parallel processing algorithms that keep all processor cores continuously engaged in productive work. The system maintains continuous data flow through the processing pipeline with minimal idle time, ensuring that general-purpose processors achieve real-time performance by eliminating wasted computational cycles.