Viral Molecular Network Architecture for Low Latency Wireless Communication
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Solution Overview
Problem
The current Internet network, based on outdated TCP/IP technologies, struggles to provide high-quality performance for voice, video, and high-definition applications due to latency and inefficiencies in packet handling, leading to inconsistent service quality for both consumers and businesses.
Innovation Solution
A high-speed, high-capacity terabits per second wireless network with an adaptive mobile backbone and access levels, utilizing a molecular architecture with Protonic Switches and Viral Orbital Vehicle access nodes, employing cell framing protocols and Atto-Second Multiplexing to switch voice, data, and video traffic at ultra-high speeds, without relying on TCP/IP or MAC protocols.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If TCP/IP packet routing is used for network communication, then network flexibility and routing adaptability are improved, but latency increases and service quality consistency deteriorates
Solution Approach 1:
The network is segmented into hierarchical levels (access, aggregation, core) with specialized functions at each level. Access networks handle local connectivity, aggregation networks consolidate traffic, and core networks provide high-speed backbone routing. This segmentation allows each segment to be optimized for its specific function, reducing overall latency while maintaining routing flexibility through hierarchical path selection.
Solution Approach 2:
Edge routers and aggregation networks serve as intermediaries between access networks and core backbone. These intermediaries perform intelligent packet classification, QoS marking, and traffic engineering, enabling the core network to handle traffic more efficiently without requiring end-to-end TCP/IP routing decisions at every node, thus reducing latency.
2Adaptability or versatility
If TCP/IP protocol stack is used for data transmission, then protocol compatibility and network interoperability are improved, but processing overhead increases and throughput decreases
Solution Approach 1:
The patent extracts and removes unnecessary TCP/IP protocol headers and processing steps at network nodes. By eliminating redundant encapsulation layers and simplifying packet handling procedures while maintaining essential TCP/IP compatibility, the network achieves higher throughput without sacrificing protocol interoperability.
Solution Approach 2:
Packet classification, QoS marking, and routing decisions are performed in advance at edge routers and aggregation points before packets enter the core network. This preliminary processing reduces the burden on core network nodes, allowing them to forward packets at line rate without extensive protocol processing, thereby increasing overall throughput.
3Productivity
If variable length packet sizes are used in IP routing, then data efficiency and bandwidth utilization are improved, but router processing complexity and latency variation increase
Solution Approach 1:
The network implements dynamic packet size optimization where packet lengths are adjusted based on traffic type, network conditions, and QoS requirements. Real-time feedback mechanisms modify packetization parameters to balance bandwidth efficiency with latency consistency, allowing the system to adapt parameters dynamically rather than using fixed or purely variable lengths.
Solution Approach 2:
The network transitions from static packet handling to dynamic packet optimization. Routers and aggregation nodes continuously adjust packet sizes, segmentation points, and transmission parameters based on real-time network state, traffic patterns, and QoS demands, enabling the system to optimize both bandwidth utilization and latency characteristics adaptively.
4Ease of manufacture
If traditional IP network architecture is used, then network simplicity and ease of deployment are improved, but capacity for high-definition video and interactive applications deteriorates
Solution Approach 1:
The patent implements a nested network architecture where traditional IP networking is embedded within a hierarchical framework of access, aggregation, and core networks. Each nested layer provides specialized functions (QoS enforcement, traffic engineering, high-speed forwarding) that enhance HD video and interactive application performance while maintaining compatibility with standard IP protocols and deployment practices.
Solution Approach 2:
The network combines multiple technological approaches into a composite architecture: hierarchical routing, QoS-aware scheduling, optical networking, and intelligent edge processing are integrated together. This composite structure leverages the strengths of each component to deliver high-quality video and interactive services while maintaining relative deployment simplicity through standardized interfaces.
Data Source
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Figure 3A~3B
AI summary
The present disclosure relates to a wireless communication device, a high speed, high capacity dedicated mobile network system, and a method for transmitting information streams across a molecular network to end users without using IEEE 802 LAN, ATM or TCP/IP connection-oriented standards and protocols.