Optical Tunnel Network for Data Center Latency and Power

The patent replaces conventional electrical switches with optical switches that operate entirely in the optical domain. This substitution eliminates the need for Optical-Electrical and Electrical-Optical conversions, thereby reducing power consumption while significantly increasing transmission rates. The optical switch uses optical signals directly for data transmission and routing decisions, avoiding the energy-intensive conversion processes inherent in electrical switch systems.

The patent changes the fundamental operating parameter of the network from electrical signals to optical signals. By operating in the optical domain with higher frequency carriers, the system achieves higher transmission rates and lower power consumption. The optical switch processes data at optical frequencies, which are inherently higher than electrical signal frequencies, enabling faster transmission without the energy overhead of repeated conversions.

The patent replaces the computational routing mechanism of electrical switches with an optical routing mechanism. The optical switch determines packet routing through optical signal processing rather than electronic computation. This eliminates the time-consuming computation and heat generation associated with electronic routing decisions, thereby reducing latency and cooling requirements.

The patent enables the optical switch to perform routing decisions directly in the optical domain without converting to electrical signals for computation. This skipping of the conversion-computation-conversion process rushes the routing decision through the optical path, significantly reducing latency and avoiding the heat generation that would require cooling.

The patent implements a dynamic optical network system where the optical switch can be reconfigured to support varying numbers of racks and servers. The system structure is not fixed but can be dynamically adjusted through optical path reconfiguration. This allows the network to adapt to growing demands by adding more racks or servers without requiring a complete system redesign, thereby improving scalability while managing complexity through flexible optical routing.

The patent segments the optical network into modular components that can be independently added or configured. The optical switch handles multiple racks and servers through segmented optical paths, allowing incremental expansion. Each rack or server group can be managed as a separate optical segment, making the overall system scalable without proportionally increasing complexity.

The patent replaces the entire electrical switch infrastructure with an optical switch system, achieving high transmission rates from the outset without needing repeated upgrades. This one-time substitution eliminates the cycle of replacement and upgrade costs associated with electrical switches, as the optical system inherently provides higher performance with lower operational costs.

The patent changes the operating parameter to optical domain, which provides higher transmission rates by default. This parameter change eliminates the need for incremental upgrades that characterize electrical switch systems. The optical switch operates at higher frequencies and speeds inherently, providing sustained high performance without the recurring maintenance and upgrade costs required to keep electrical switch systems competitive.