"Changing Lanes to Overtake"! Using the "Tao's Law" to Open Up a New Track
Opening a New Track with "Tao's Law"
■ Hao Dongbai
In a situation where the chip industry has become mired in physical limits and cost dilemmas, Tao's Law charts a different course, substituting "temporal miniaturization" for "geometric miniaturization" and achieving breakthroughs by leveraging mature process nodes. This method of "changing lanes to overtake" carries important lessons for how to break through the traditional rules framework of warfare.
Traditional mechanized warfare follows the linear rule of "tonnage equals combat power," competing on the quantity of heavy equipment, armor thickness, and firepower range. Winning future wars requires us to draw on Tao's Law and proactively leap out of the "track" preset by traditional rules. First, we must reconstruct the standards of victory and defeat—shattering the ingrained assumption that "the more heavy equipment and the greater the mass, the stronger the combat power"—and establish a new conception of victory and defeat centered on system effectiveness, precision destruction and paralysis, cognitive control, and cost-effectiveness. Second, we must open up new-quality tracks (新质赛道), avoiding resource-attrition-style benchmarking against adversaries in the domain of traditional main battle equipment, and instead vigorously developing new-quality combat capabilities (新质战斗力) such as intelligentized unmanned swarms, distributed combat nodes, low-cost precision strike weapons, and cross-domain integrated operational systems. Third, we must innovate operational modes, driving a transformation of combat organization from large-scale, centralized formations toward smaller, modular, and intelligentized ones; relying on efficient information networking to achieve distributed deployment, flexible aggregation and dispersal, and cross-domain linkage; and using entirely new system-of-systems advantages to offset the adversary's traditional heavy-force advantages.
The core technology underlying Tao's Law is "logic folding (逻辑折叠)"—reconstructing circuit architecture through vertical stacking, shortening signal transmission paths, and dramatically improving efficiency without changing device dimensions. Mapped onto the military domain, this architectural reshaping is fundamentally about optimizing the spatial layout and functional integration of operational elements to improve the operational tempo of the system as a whole. First, at the micro level: functional integration of combat units. This means changing the traditional pattern in which reconnaissance, firepower, communications, and other elements are dispersed in deployment and slow to respond. Drawing on "folding" thinking, functions such as reconnaissance and sensing, target location, precision strike, and information communications are highly integrated into small combat units, achieving "strike upon detection." Second, at the meso level: dynamic aggregation and dispersal of swarm operations. Individual unmanned platforms have limited capability, but through intelligent networking and architectural reshaping, flexible employment of "breaking the whole into parts and reassembling parts into a whole" can be achieved. When dispersed, they evade reconnaissance and strikes; when aggregated, multiple swarms operate in coordination and conduct layered assaults, executing saturation precision strikes against the enemy's critical or vulnerable points, achieving high-lethality effects at low cost. Third, at the system level: distributed reconstruction of defensive networks. Dispersed nodes—combat platforms and operational elements—are "folded" and integrated through intelligent networking to construct a distributed low-altitude defense system with broad airspace coverage and elastic survivability, realizing "small nodes, large networks, strong resilience." This architectural reshaping can significantly enhance battlefield survivability and defensive effectiveness.
Recent practice in localized armed conflicts demonstrates that low-cost, highly mobile, intelligentized unmanned platform swarms can achieve asymmetric operational effects. This enlightens us: we must have the courage to break free from the constraints of traditional rules, focus on developing asymmetric advantages, optimize the integration of operational elements and the operational mode of the system as a whole, open up new tracks in the development of new-domain and new-quality (新域新质) combat forces, and win strategic initiative through rules innovation.