User Terminal Data Channel Multiplexing for Radio Resource Utilization

The patent applies dynamics by making the time field allocation flexible rather than fixed. The control channel can dynamically occupy different time fields within the TTI depending on scheduling needs, while data channels are allocated in remaining time fields. This dynamic allocation allows the system to adapt to varying traffic conditions and control channel requirements, resolving the contradiction between maintaining control reliability and maximizing resource utilization.

The patent transitions from a static time-division approach to a more flexible resource allocation scheme where control and data channels can be multiplexed in both time and frequency dimensions. By allowing control channels to be mapped to candidate resources in a search space across multiple time fields, the system adds dimensional flexibility to resource allocation, enabling better utilization without compromising control channel functionality.

The patent applies segmentation by dividing the TTI into multiple candidate time field resources within a search space. Control channels are mapped to specific candidate resources through segmentation of the available time-frequency grid, while data channels are allocated in remaining segmented resources. This segmentation approach enables systematic resource management and reduces the complexity of arbitrary resource allocation.

The system employs self-service mechanisms where user terminals autonomously perform blind decoding of control channels across candidate resources in the search space without requiring explicit scheduling assignments for each control channel location. This self-service approach simplifies the overall system complexity by eliminating the need for complex centralized scheduling decisions for control channel placement.

The patent applies local quality by concentrating control channel candidates in specific localized time-frequency regions (search space) rather than uniformly distributing them across the entire system band. This localization allows terminals to focus their blind decoding efforts on specific candidate resources within the search space, maintaining detection reliability while significantly reducing processing complexity compared to searching the entire band.

The system employs partial action by having terminals perform blind decoding only on a subset of candidate resources within the search space rather than across the entire system band. This partial decoding approach provides sufficient control channel detection capability for normal operation while avoiding the excessive processing complexity that would result from exhaustive full-band searching.