Wired for War was a well-timed warning of the robotics revolution and the impact of autonomous systems on the future of conflict. Today, many of its predictions play out in high definition on social media and the nightly news, providing an opportunity to review P. W. Singer’s 2009 vision against a 2026 benchmark. Singer recognised that robotics would spread through commercial markets, hobbyists, and actors outside of established defence institutions. The most dramatic change has been the scale and tempo of that diffusion. Cheap systems and rapid battlefield adaptation now feature more prominently than the ambitious programs that dominated parts of his text. Remotely operated platforms change how soldiers employ force, and increasing autonomy also changes the decisions they delegate to machines.

Wired for War examines the use of military robotics during the wars in Iraq and Afghanistan. Through a combination of battlefield reporting, wide-ranging interviews, and historical analysis of technology, Singer contends that ‘man’s monopoly of warfare is being broken’. The book’s strength is its attention to second-order effects, particularly the consequences for the people and systems required to employ force lawfully and ethically in an increasingly autonomous battlespace.

Singer saw that the use of uncrewed systems would impact command, force structure, and training while altering the ethical, legal, and political calculus. He makes a technically demanding subject accessible through interviews, historical examples, and references to popular culture. The span of the book is valuable and there are hundreds of references. But the breadth can also make the book uneven. Detailed descriptions of emerging systems sometimes compete with the institutional, legal, and human questions that make the book relevant for today’s Army.

The war in Ukraine demonstrates the scale and tempo of the revolution Singer foresaw. In 2026 Ukraine is expected to produce more than 7 million drones. Ukrainian reporting also cites an assessment that Russia plans to produce 7.3 million FPV drones. These are production announcements rather than confirmed output, but the scale is real. Precision-strike effects once associated primarily with multi-million-dollar platforms are increasingly available through cheap tactical drones.

The robotics revolution has been accelerated by adaptation at the tactical edge. Soldiers and small, agile firms drive innovation that is then scaled through institutions. The Ukrainian Ministry of Defence codified 67 new uncrewed ground vehicle models in the first six months of 2026. The rapid development cycle is partly enabled through the Brave1 marketplace that provides soldier access to centralised procurement through an ‘Amazon for the military’. An important feature is the connection between battlefield demand and institutional support. Soldiers identify useful adaptations and the institutions provide the means to procure and scale them. The lesson for the Australian Army is to connect soldier-led adaptation with the technical access, authority, and procurement pathways required to scale.

A human endeavour

Singer’s discussion of remote warfare reflects the experience of American operations in Iraq and Afghanistan. His account recognises psychological strain among remote operators who often operate thousands of kilometres from the battlefield. Tactical drone warfare has increased the physical exposure of the operators. Robotics can move an operator away from the platform without moving them from the battlefield. Ukrainian reporting illustrates the impact of drone employment at the tactical level. In July 2026, Ukraine’s Unmanned Systems Forces reportedly struck or destroyed 53,755 targets, with 95 per cent at tactical depth, an average distance of 3.7 km from the line of contact. Separate Ukrainian reporting attributed 90 per cent of recorded Russian personnel casualties in March 2026 to drones. The wartime figures merit caution, but they underline the human consequences of the robotics revolution and the requirement to adapt tactics, techniques, and procedures to the dangers of the new reality.

Tactical generals

Singer was prescient when he warned that greater visibility can produce distorted command, a concept he calls ‘tactical generals’. Networked ISR allows senior commanders to observe tactical actions and creates a persistent temptation to intervene. Mission command in a machine-rich force requires restraint at headquarters, clear delegation, and a shared understanding of the battlespace. Machine learning also adds the temptation to confuse a rapid recommendation with a sound course of action. Technical literacy, scepticism about automated recommendations, and the confidence to halt a flawed process have become professional virtues. The human advantage may lie in knowing when not to act, when not to intervene, and when the machine is confidently wrong.

Wired for War treats autonomy as a spectrum. The same command problem extends to machine-generated recommendations. A human can remain nominally ‘in the loop’ while exercising little meaningful control. If a system selects the target, if the engagement window is measured in seconds, or if operators routinely accept machine outputs, formal approval risks becoming procedural theatre. For Army, the relevant questions are whether the operator understood the context, had enough time for a measured decision, and the authority to challenge the recommendation within a clear chain of responsibility.

Archipelagic warfare

Army must read Wired for War through the lens of archipelagic warfare rather than importing every lesson from the continental steppes of Ukraine. The practical question is whether acquisition, training, and sustainment arrangements can support timely adaptation. Dispersed island operations will test communications, resupply and access to technical support. Soldiers will require additional technical training alongside clear pathways for soldier-led experimentation to prepare for those conditions. The 2026 Integrated Investment Program allocates up to $2.4 billion for autonomous and uncrewed land capabilities. That investment will need to be matched by training, sustainment, and opportunities for soldiers to break, fix, and adapt systems before the shooting starts.

Singer’s most damning line for innovation is that ‘what was technically possible mattered less than whether it was bureaucratically imaginable’. Procurement cycles measured in years can struggle to accommodate countermeasures that evolve in weeks. On an isolated island chain, a combat team cannot afford to wait for an engineering change approval or vendor patch while its systems are offline. Soldiers need clear authority to adapt equipment and software, backed by appropriate technical support.

Verdict

Wired for War is a well-researched, compelling warning about the future of warfare and should remain in the Chief of Army's Professional Study Guide. Commanders and soldiers employing these systems should read it alongside capability managers, force designers, doctrine writers, and legal officers. To better understand how both the Ukrainian and Russian militaries have adapted, I recommend The War for Ukraine: Strategy and Adaptation Under Fire by Mick Ryan. Wired for War’s value lies in the tension between what Singer foresaw and what ensued. He saw diffusion, autonomy, remote operations, legal ambiguity, and intrusive command with remarkable clarity. Contemporary experience places emphasis on rapid adaptation and the risk to tactical operators.

For Army, the challenge is to connect technological advancement with training, sustainment, and organisational learning. Soldiers need room to experiment. Institutions need the discipline to turn successful experiments into supported capability. Wired for War’s enduring warning is that technology will always evolve faster than bureaucracy, and in the next war, the gap between what is technically possible and what is bureaucratically imaginable will be paid for by our soldiers.