The relentless expansion of 5G/6G networks, coupled with the proliferation of IoT devices and autonomous systems, creates immense pressure on existing communication infrastructure. Efficient spectrum utilization and robust signal integrity are paramount. This technology offers a critical solution by stabilizing signal quality in complex hierarchical modulation schemes, enabling higher data throughput and reliability in dense urban environments and remote areas. Companies seeking to lead in next-generation wireless communication and industrial IoT must prioritize such foundational improvements to maintain competitive edge and meet evolving regulatory demands for network performance.
Maintains Signal Quality During Relay: Preserves retransmission symbol quality and suppresses reception characteristic degradation even in overlapping LDM signal constellation regions.
Demonstrates High Technical Uniqueness: Identified with only 3 prior art documents, showcasing significant technical superiority and potential for early market share.
Optimizes Complex Signal Processing: Generates high-precision retransmission symbols by creating soft-decision replicas for lower-layer signals based on upper-layer constellation points and multiplying by symbol probabilities.
This patent protects a symbol determination device and relay apparatus for Hierarchical Division Multiplexing (LDM) signals, specifically focusing on maintaining signal quality in overlapping constellation regions. With 8 claims and a low number of cited prior art documents (3), the patent demonstrates strong technical uniqueness and robust protection against invalidation, offering licensees a clear competitive advantage.
This patent primarily covers LDM symbol determination and relay apparatus. White space exists in advanced adaptive modulation schemes beyond LDM, novel error correction codes, or specific hardware architectures for ultra-low latency applications not directly addressed by the current claims.
Implementing this technology reduces the load from retransmission and error correction processing caused by signal quality degradation in communication equipment, improving overall system throughput. This could extend the lifespan of existing communication infrastructure and reduce maintenance frequency, leading to an estimated ~10% reduction in annual operational costs. For example, for a facility with $3.5M (AI est.) in annual communication infrastructure maintenance costs, a 10% reduction would yield ~$350K/year (AI est.) in savings.
X: Communication Quality Stability
Y: Frequency Utilization Efficiency