Wireless Downlink Scheduling Across CORESET Groups

The patent segments communication resources into multiple resource groups (first resource group, second resource group, etc.) with distinct characteristics. Each resource group can be independently configured and processed, allowing the wireless device to handle different data types (in-order, out-of-order, overlapping) through appropriate resource groups. This segmentation improves channel processing efficiency by enabling parallel and optimized processing paths while maintaining manageable device complexity through structured organization.

The patent introduces priority indications as a configurable parameter that can be included or excluded from downlink transmissions based on the data type. For in-order data, no priority indication is needed (simpler processing). For out-of-order and overlapping data, priority indications are included to enable proper ordering and processing. This parameter change approach allows the system to achieve high throughput for complex data types while maintaining alignment and reliability through appropriate use of priority information.

The patent applies priority indications selectively rather than universally. Priority indications are included only in downlink transmissions containing out-of-order or overlapping data where they are needed for accurate processing. For standard in-order data transmissions, priority indications are omitted. This local quality approach ensures data processing accuracy is improved only where necessary, while minimizing overhead in cases where simple sequential processing suffices.

The patent designs resource groups with universal characteristics that can handle multiple data types through a unified framework. Each resource group is configured with parameters (such as priority handling, ordering requirements) that can be adjusted to accommodate in-order, out-of-order, and overlapping data. This multi-functionality approach enables the wireless device to adapt to different data types using a standardized resource group structure, avoiding the need for completely separate processing paths for each data type and thus limiting the increase in device complexity.