Vigorously Building a Battlefield Internet of Things to Provide Materiel Support for the Efficient Operation of the Combat System
As the saying goes, "Before the troops move, provisions go first (兵马未动,粮草先行)." No matter how the form of warfare evolves, battlefield materiel delivery has always been an important foundation for sustaining the operation of the combat system. In modern warfare, the tempo of operations has accelerated markedly and the scale of equipment and materiel consumption has continued to climb, placing higher demands on the timeliness and precision of battlefield materiel delivery. At the same time, the deployment of modern combat forces is gradually expanding into emerging domains, and materiel requirements across all operational domains exhibit a highly interconnected character. On this basis, it is imperative to vigorously build a battlefield Internet of Things (战场物联网), further broaden the boundaries of materiel coverage, raise the security level of delivery, and unlock the value of battlefield data, so as to provide solid materiel support for the efficient operation of the combat system.
Continuously expand coverage boundaries. The primary purpose of battlefield materiel delivery is to meet operational requirements. At present, new equipment, new platforms, and new weapons are emerging in an endless stream. This has not only brought about a rapid improvement in combat capabilities but has also caused battlefield materiel requirements to grow continuously and has placed demands on delivery precision. In this process, building a sound ubiquitous sensing network (泛在化感知网络) is a prerequisite for achieving "precision delivery (精准投送)." At the practical level, lightweight deployment of multi-modal sensor nodes can be advanced, employing sensing devices that are low-power, small in size, and highly adaptable to the environment, suited to the deployment requirements of different operational scenarios on land, at sea, and in the air, so that wherever battlefield requirements expand, materiel delivery coverage follows.
Persist in consolidating the protective barrier. In the age of cold steel, "cutting the enemy's supply lines and intercepting the enemy's materiel (断敌粮道,截敌物资)" was one of the important means of defeating the enemy, making materiel delivery channels a "target of all arrows (众矢之的)" on the battlefield. To this day, the widespread use of various high-precision strike weapons has made the vulnerability of battlefield materiel delivery even more pronounced. Therefore, a security mindset must be firmly established, and protective capabilities and Internet of Things capabilities must be upgraded in tandem. On one hand, security mechanisms must be embedded at the hardware design, protocol development, and system construction stages to build a full-chain protection system (全链路防护体系). On the other hand, a damage-resistant self-healing mechanism (抗毁自愈机制) must be established, with pre-configured multi-path communication redundancy and node backup schemes, so that when some nodes are damaged or links are interrupted, the remaining nodes can automatically form a network and autonomously reconfigure.
Better unlock the value of data. Building a battlefield Internet of Things requires not only attention to the development of hardware infrastructure but also the efficient circulation and deep utilization of data. The massive volumes of battlefield data collected by various sensing nodes constitute a "rich ore deposit (富矿)" containing battlefield information: they can display battlefield requirements, present the battlefield situation, and indicate the direction of the battle. This "rich ore" lies buried within complex and multifarious data and must undergo circulation, fusion, and transformation before it can become an effective driver for ensuring battlefield supply. On this basis, a full-process data governance system (全流程数据治理体系) can be established to unify data standards and regulate data ownership, ensuring the accuracy, consistency, and usability of collected data. The transformation chain from "data" to "action" can also be opened up, deeply connecting Internet of Things sensing data with other systems so that Internet of Things data directly serves the operational closed loop (作战闭环).