Doctrine

A Brief Analysis of the Stage-Specific Characteristics of Tactical Innovation (战法创新)

浅析战法创新的阶段性特征

PLA Daily (解放军报) 9 August 2026

Summary

A PLA theoretical journal article lays out a four-stage framework for 战法创新 (tactical innovation): nascent emergence, iterative evolution, systems integration, and reshaping and leap, each with a defined core task running from concept construction through adversarial validation to cross-domain systems linkage and generational renewal. The framework documents the PLA's current institutional effort to formalize how new tactics move from technological possibility to "systematized operational capability" (系统化作战能力), with particular emphasis on combat-realistic validation (实战化验证) and closing the gap between conceptual feasibility and battlefield usability. The article is doctrinal guidance content rather than a report of a specific exercise or unit action; its value is as a record of how PLA theorists are structuring the innovation-to-operations pipeline, not as evidence of a capability shift in any particular domain.

Translation

Tactical innovation (战法创新) is the enduring theme of the development of military theory and practice, and an important handle for mastering the evolution of warfare forms and seizing the initiative in military competition. As a systems engineering endeavor that is both exploratory and practical in nature, tactical innovation exhibits distinct stage-specific characteristics. Accurately grasping the concrete characteristics and practical requirements of each stage of tactical innovation is of significant importance for scientifically coordinating the pathways of tactical innovation.

The Nascent Emergence Stage: A Concept-Construction Period with Technological Development at Its Core. The nascent emergence stage is the initial stage of tactical innovation—the first coupling, at the conceptual level, of military-technological progress and the evolution of operational requirements. Tactical innovation at this stage is supported by technological possibility and oriented toward potential operational scenarios; its core task is to accomplish the transformative construction from technological potential to operational concepts. At this point, tactics have not yet formed a complete action system or operational procedures, and are expressed more as breakthroughs in operational thinking and embryonic forms of action concepts, exhibiting markedly forward-looking, ambiguous, and exploratory characteristics. Throughout this process, tactical innovation is objectively constrained by the maturity of technology and subjectively limited by operational cognition, making an incompatibility between theory and practice unavoidable. Therefore, the value of this stage lies not in producing complete operational plans, but in breaking the path dependency of traditional thinking, opening entirely new directions for tactical innovation, and providing a theoretical basis for subsequent practical exploration. Advancing tactical innovation in the nascent emergence stage requires adhering to dual-directional effort driven by both technology pull and demand pull. Specifically, on one hand, a normalized system for tracking and assessing military technology must be established to excavate the potential operational value of technology at the level of technical mechanisms, accurately grasp the boundary constraints that technological maturity imposes on tactical design, and avoid utopian innovation divorced from technological reality. On the other hand, the core requirements of future operations must be firmly anchored, and the directional targets of tactical innovation must be reverse-engineered from battlefield realities, ensuring that conceptual ideas are tightly bound to operational imperatives.

The Iterative Evolution Stage: A Capability-Shaping Period with Adversarial Validation at Its Core. The iterative evolution stage is a transitional stage in which tactics move from conceptual ideas toward practical implementation. Throughout this process, tactical innovation continuously refines the action logic and operational procedures of tactics primarily through adversarial testing. Tactical innovation at this stage is driven at its core by combat-realistic validation (实战化验证), with discovering problems and closing capability gaps as its main tasks, thereby accomplishing the transformation from abstract concepts to actionable operational plans. Having undergone the concept-construction of the nascent stage, tactics already possess a basic framework and outline, but gaps remain between their action procedures, coordination rules, and effectiveness parameters and the actual requirements of complex battlefield environments. Only through repeated validation can tactics gradually shed the idealized coloring of theoretical constructs and acquire the practical capability to cope with complex battlefields. At the practical level, advancing tactical innovation in the iterative evolution stage requires building a full-element, full-process adversarial validation system that forms a complete closed loop of problem feedback and iterative optimization. Extreme conditions and complex scenarios must be set to conduct stress testing, exposing the shortcomings and weaknesses of tactics under different environmental constraints. Bidirectional interactive war-gaming between opposing sides must be strengthened, conducting targeted validation grounded in the adversary's operational logic and countermeasures, and calibrating tactical action methods through the contest. A problem registry and iteration mechanism must be established to trace and rectify problems discovered during validation one by one, focusing on process reengineering at critical nodes of the operational chain, and continuously closing the action chain of tactics through a "small steps, fast pace" approach of sustained optimization, steadily advancing tactics from "conceptually feasible" to "operationally usable."

The Systems Integration Stage: An Effectiveness-Release Period with Element Linkage at Its Core. Modern warfare is a contest of system against system (体系与体系的对抗). After repeated refinement through the iterative evolution stage, the action logic of the tactics themselves has approached maturity, but the release of their effectiveness cannot be satisfied merely by single-force, single-domain breakthroughs at individual points; it must focus on the coordinated linkage level of the entire operational system. Only when tactics are deeply integrated into the command system, force system, support system, and others—achieving synchronized linkage of all elements—can a standardized, replicable, and scalable mature operational paradigm be formed. Advancing tactical innovation in the systems integration stage requires, on one hand, strengthening the systems-level coordination of tactical design, ensuring that the action tempo, command procedures, and force employment of tactics are compatible with the overall operational system, and avoiding problems of element disconnection and chain obstruction. On the other hand, a cross-domain, cross-element coordinated operating mechanism must be established, unifying operational data standards and action interface specifications, and breaking through the coordination barriers between different forces and different domains. At the same time, attention must be paid to the compatibility and extensibility of tactics within the systems framework; through systems integration, critical bottlenecks in the release of operational effectiveness must be cleared, driving tactical effectiveness to leap from single-point breakthroughs to systems-level multiplication, and truly transforming mature tactics into systematized operational capability.

The Reshaping and Leap Stage: A Generational Renewal Period with Updating and Iteration at Its Core. Tactical innovation has only a present continuous tense, never a past perfect. At this stage, although the existing operational logic and operating modes have already achieved mature effectiveness, in the face of the continuous evolution of warfare forms and the upgrading of adversary countermeasure strategies, the adaptability of original tactics will gradually weaken; only by continuously breaking through established paradigms can operational capability be ensured to remain in a state of dynamic evolution. Advancing tactical innovation in the reshaping and leap stage requires, on one hand, building a dynamic adaptation mechanism. The continuous emergence and application of various emerging technologies in the military domain demands that tactical innovation establish a technological maturity assessment model, translating technology development curves into tactical evolution roadmaps. "Technology–Tactics" transformation laboratories can be established to conduct operational effectiveness previews of frontier technologies; simultaneously, a dynamic assessment system for tactical effectiveness must be built, using big data to analyze battlefield variables and establishing a tactical adaptability index model to provide quantitative reference for tactical updates. On the other hand, the feedback closed loop must be improved. A three-tier assessment model of "theoretical deduction—simulated validation—combat testing" can be constructed to ensure that innovative results withstand multi-dimensional scrutiny. At the theoretical level, operational simulation systems are used to conduct multi-scenario deductions and quantitatively assess the adaptability index of tactics; at the simulation level, virtual reality technology is relied upon to construct realistic adversarial environments and test the operational feasibility of tactics; at the combat level, data are accumulated through exercise and training tasks to form a dynamic database of tactical effectiveness. At the same time, through establishing a closed-loop mechanism of "problem tracing—plan optimization—re-validation," tactical innovation is driven to continuously update and develop through dynamic adjustment.

Original Chinese

战法创新是军事理论与实践发展的永恒主题，是驾驭战争形态演变、赢得军事竞争主动的重要抓手。作为一项兼具探索性与实践性的系统工程，战法创新呈现出鲜明的阶段性特征。准确把握战法创新各阶段的具体特征与实践要求，对于科学统筹战法创新路径具有重要意义。初创萌发阶段：以技术发展为核心的概念建构期。初创萌发阶段是战法创新的起始阶段，是军事技术进步与作战需求演变在理念层面的首次耦合。这一阶段的战法创新以技术可能性为支撑，以潜在作战场景为指向，核心任务是完成从技术潜力到作战概念的转化建构。此时的战法尚未形成完整的行动体系与操作流程，更多体现为作战理念的突破与行动构想的雏形，具有显著的前瞻性、模糊性与探索性特征。在这个过程中，战法创新既受到技术成熟度的客观约束，也受到作战认知的主观局限，因而不可避免地存在理论与实践之间的适配性矛盾。因此，这一阶段的价值不在于形成完备的作战方案，而在于打破传统思维的路径依赖，开辟战法创新的全新方向，为后续的实践探索提供理论依据。推动初创萌发阶段的战法创新，要坚持技术牵引与需求拉动双向发力。具体而言，一方面要建立常态化的军事技术跟踪研判体系，从技术机理层面挖掘其作战应用的潜在价值，准确把握技术成熟度对战法设计的边界约束，避免脱离技术实际的空想式创新；另一方面要锚定未来作战的核心需求，从战场实际出发倒推战法创新的方向靶点，确保概念构想紧扣实战指向。迭代演进阶段：以对抗验证为核心的能力塑造期。迭代演进阶段是战法从概念构想走向实践落地的过渡阶段。在这个过程中，战法创新主要通过对抗性检验不断完善战法的行动逻辑与运行流程。这一阶段的战法创新以实战化验证为核心驱动，以发现问题、补齐短板为主要任务，从而完成从抽象概念向可操作行动方案的转化。经过初创阶段的理念建构，战法已具备基本的框架轮廓，但在行动流程、协同规则、效能参数等方面仍与复杂战场环境的实际要求存在差距。只有经过反复的验证，战法才能逐步褪去理论构想的理想化色彩，具备应对复杂战场的实际能力。在实践层面，推动迭代演进阶段的战法创新，必须构建全要素、全流程的对抗验证体系，形成问题反馈与迭代优化的完整闭环。要设置极限条件与复杂场景开展压力测试，暴露战法在不同环境约束下的短板弱项。要强化对抗双方的双向互动推演，立足对手的作战逻辑与反制手段开展针对性校验，在博弈中校准战法的行动方式。要建立问题台账与迭代机制，对验证中发现的问题逐一溯源整改，聚焦作战链路的关键节点进行流程再造，通过“小步快跑”、持续优化的方式，不断闭合战法的行动链路，推动战法从“概念可行”向“实战可用”稳步转变。体系融合阶段：以要素联动为核心的效能释放期。现代战争是体系与体系的对抗，经过迭代演进阶段的反复打磨，战法本身的行动逻辑已趋于成熟，但其效能释放不能仅仅满足于单一力量、单一领域的单点突破，而应聚焦于整个作战体系的协同联动水平。只有当战法深度融入指挥体系、力量体系、保障体系等，实现各要素的同频联动，才能形成标准化、可复制、可推广的成熟作战范式。推动体系融合阶段的战法创新，一方面要强化战法设计的体系化统筹，确保战法的行动节奏、指挥流程、力量运用与整体作战体系相适配，避免出现要素脱节、链路梗阻的问题。另一方面要建立跨域跨要素的协同运行机制，统一作战数据标准与行动接口规范，打通不同力量、不同领域之间的协同壁垒。同时，注重战法在体系框架内的兼容性与扩展性，通过体系集成打通作战效能释放的关键堵点，推动战法效能从单点突破向体系倍增跃升，使成熟战法真正转化为体系化的作战能力。重塑跃迁阶段：以更新迭代为核心的代际更替期。战法创新只有进行时，没有完成时。在这一阶段，既有的作战逻辑与运行模式虽已具备成熟效能，但面对战争形态的持续演变和对手反制策略的升级，原有战法的适应性将逐步弱化，只有持续突破既定范式，才能确保作战能力始终处于动态进化状态。推动重塑跃迁阶段的战法创新，一方面要构建动态适应机制。军事领域各类新兴技术的不断涌现和应用，要求战法创新必须建立技术成熟度评估模型，将技术发展曲线转化为战法演进路线图。可以设立“技术—战法”转化实验室，对前沿技术进行作战效能预演，同时，构建战法效能动态评估体系，运用大数据分析战场变量，建立战法适应性指数模型，为战法更新提供量化参考。另一方面要完善反馈闭环。可以构建“理论推演—模拟验证—实战检验”的三级评估模型，确保创新成果经得起多维度检验。在理论层面，运用作战仿真系统进行多场景推演，量化评估战法的适应性指数；在模拟层面，依托虚拟现实技术构建逼真对抗环境，检验战法的实战可行性；在实战层面，通过演训任务积累数据，形成战法效能的动态数据库。同时，通过建立“问题溯源—方案优化—再验证”的闭环机制，推动战法创新在动态调整中不断更新、不断发展。