Reflections Prompted by the Technological Transformation Hidden Behind "Estimated Delivery Tomorrow"
Starting from "Estimated Delivery Tomorrow"
■ Liu Yang
When we shop online and see the promise of "estimated delivery tomorrow" on a shopping platform, few people stop to think about the technological transformation hidden behind those words. This seemingly simple service commitment rests on a modern logistics system in which data collection, intelligent scheduling, and network coordination are deeply integrated. Through real-time collection of data across the entire process, relying on intelligent algorithms to precisely calculate delivery times, and using networks to connect the ordering, receiving, sorting, transporting, and delivery stages, the delivery process—full of uncertainty—is transformed into a deterministic result that can be calculated, anticipated, and controlled. The operating logic of this system offers inspiration and reference for the future development of warfare toward digitalization, intelligentization (智能化), and networking. Studying the application, transformation, and practical experience of emerging technologies, and exploring the mechanisms of victory in war, holds important practical value and guiding significance for accelerating the formation of modernized combat capabilities and improving operational effectiveness.
On a network platform, from the moment an order is placed, the user's order information, delivery address, shipment time, location nodes, and other data constitute the initial dataset. The foundation for on-time delivery lies in the full-process collection of digitalized information. Without continuous and reliable data support, relying purely on experiential estimation, on-time delivery would be out of the question. In the past, commanders at all levels were trapped in the fog of war and frequently unable to make optimal decisions due to incomplete, inaccurate, or untimely information. Commercial logistics technology provides a reference for penetrating that fog. Future warfare is data-driven warfare. One important prerequisite for victory is transforming the battlefield into a digitalized space that can be perceived, calculated, and shared, thereby driving the transformation of vague, approximate battlefield information into clear, precise battlefield situational awareness, and providing reliable, real-time data support for battlefield perception. On one hand, information must be collected in real time—comprehensively employing the Internet of Things, satellites, unmanned aerial vehicles, sensors, and other means to automatically and continuously collect data, integrating scattered, heterogeneous, and isolated data into a battlefield situational picture with full-domain coverage, continuous updates, and full-dimensional linkage. On the other hand, data standards must be unified, breaking down data barriers between different services and branches, different echelons, and different systems, to form a standardized and complete battlefield data pool.
For order delivery to be completed, data support alone is far from sufficient; the key is to conduct deep learning and algorithm refinement through analysis of historical order delivery data. The on-time delivery of modern logistics orders lies precisely in the shopping platform's intelligent scheduling, precise anticipation, and autonomous optimization. The sharp increase in uncertainty factors in future warfare objectively demands that planning and decision-making advance from experiential judgment toward algorithmic analysis (算法研判), providing quantified, scientific decision-making support for achieving battlefield victory. First, computational capacity must be improved—dedicated algorithmic models must be developed to form an algorithm library covering the full cycle of reconnaissance, control, strike, assessment, and support, enabling rapid processing and deep mining of information and data. Second, analytical and assessment capacity must be improved—artificial intelligence deep learning technology and other means must be used to predict indicators of adversary action, transforming static data into dynamic early warning. Third, decision-making efficiency must be improved—automatically distinguishing strike targets, allocating strike platforms, and calculating support requirements, rapidly generating multiple courses of action for commanders to choose from, and compressing the time required for command-and-control centers to produce plans.
The final execution of order fulfillment cannot be separated from a highly coordinated execution network. Sorting robots inspect and package goods; couriers deliver to the door; goods arrive at the estimated time—behind all of this is an efficient, closed-loop, and coordinated collaborative network. The on-time delivery of modern logistics orders is supported by a collaborative network characterized by node interconnection, autonomous adaptation, and high-degree linkage. Future warfare should likewise build a networked operational coordination system, achieving distributed deployment, networked command, and integrated coordination, transforming the sequential top-down implementation of operational coordination into autonomous regulation and control, and providing efficient and controllable structural support for operational coordination. First, dynamic self-organizing networks must be built—breaking down barriers between nodes to form a self-healing, wide-area interconnected network architecture, enabling any node to connect, any break point to self-heal, and any area to be covered, thereby improving system survivability and stability. Second, full-dimensional cross-domain linkage must be advanced—linking different combat units across all domains into a unified whole, achieving real-time information sharing and autonomous operational coordination, and forming a systemic advantage of cross-domain energy concentration and full-domain energy release (跨域聚能、全域释能). Third, full-process closed-loop management and control must be strengthened—from situational awareness, command decision-making, and action control through to effects assessment, with continuous point-by-point tracking, real-time correction, and closed-loop implementation throughout, ensuring that combat operations are precise, controllable, sustained, and effective.