6.1 – Drone Warfare as a Decisive Factor, an introduction overview
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Drone warfare has moved beyond the status of an enabling capability and must now be understood as a structural component of the battlefield. This is not a projection of future trends, but a reality already observable in ongoing conflicts, where unmanned systems are employed continuously across all echelons, shaping how operations are conducted.
As said, the most immediate effect of this transformation is the emergence of a condition of persistent observation. Units can no longer assume that concealment will provide reliable protection, nor that exposure will be temporary. Instead, they operate in an environment where detection is increasingly likely and, once achieved, can be rapidly translated into engagement. The time previously available between being identified and being targeted has been drastically reduced, often to the point of being operationally irrelevant.
This phenomenon is directly linked to the growing density of unmanned systems across the battlefield. Density should not be understood merely as an increase in the number of drones operating in a given area. Rather, it describes the cumulative presence of multiple ISR platforms, FPV systems, loitering munitions, communication relays, autonomous sensors, electronic warfare assets, and Counter-UAS systems functioning simultaneously within the same operational space.
The significance of density lies in its cumulative effect. While a single platform may provide only temporary observation, a dense network of airborne sensors creates a condition in which observation becomes persistent rather than episodic. Detection is no longer dependent upon a specific platform being present at a specific moment. Instead, overlapping layers of sensors continuously monitor the battlespace, reducing observation gaps and increasing the probability that movement, emissions, or operational activity will be identified.
We can state that “air superiority is no longer our”
This shift fundamentally alters the logic of survivability. Protection is no longer primarily achieved through armour or fortification, but through the ability to avoid detection, reduce signature, and maintain mobility. In this context, the most significant vulnerability is not the platform itself, but the set of signatures it emits—visual, thermal, and electromagnetic.
At the same time, the widespread availability of low-cost unmanned systems has introduced a profound change in the economic logic of warfare. The ability to generate effects using relatively inexpensive and expendable platforms has created a form of cost asymmetry that challenges traditional assumptions. As a result, the decisive factor is no longer technological sophistication alone, but the capacity to generate mass, persistence, and rapid adaptation.
This dynamic directly contributes to the decentralization of air firepower. Capabilities that were once concentrated at higher levels of command are now available at company level. Small units are increasingly able to conduct reconnaissance, identify targets, and generate effects independently. This compresses decision-making cycles and shifts responsibility downward, placing greater demands on tactical commanders while simultaneously increasing their operational autonomy.
However, this increased availability of capability does not automatically translate into effectiveness. A critical issue highlighted by operational experience is the speed of adaptation. The ability to modify tactics, integrate new tools, and respond to adversary actions in short timeframes has become a decisive advantage. In environments where change occurs rapidly, institutional processes that operate on longer cycles risk becoming disconnected from operational reality. The challenge is therefore not only to acquire capabilities, but to adapt their use at the pace required by the battlefield.
Another defining characteristic of the current environment is the condition of the electromagnetic spectrum. Reliable communications and GNSS availability can no longer be assumed. Instead, degradation, disruption, and denial must be treated as baseline conditions. This reinforces the need for resilience, redundancy, and procedural adaptation.
These dynamics are further compounded by the saturation of the lower airspace. The space between ground level and a few hundred meters above it has become densely populated by a variety of systems, including ISR drones, FPV platforms, loitering munitions, and counter-UAS assets. This creates a highly dynamic environment in which multiple actors operate simultaneously, often without a shared understanding of the overall situation.
Operational experience from recent conflicts suggests that density itself has become a defining characteristic of contemporary warfare. Effects are generated not only by the capabilities of individual systems, but by the ability to employ multiple interconnected systems simultaneously. Density increases persistence, expands situational awareness, accelerates targeting cycles, complicates adversary decision-making, and places unprecedented demands on coordination and airspace management.
Consequently, the lower airspace should no longer be viewed as a secondary operational layer. It is progressively becoming a contested and highly dynamic domain whose management directly influences operational effectiveness, survivability, and freedom of maneuver.
In mountain warfare, the impact of this saturation is particularly pronounced. Terrain restricts movement, limits lines of sight, and channels both ground and air activity into predictable corridors. As a result, units are more exposed to observation and more vulnerable to targeting, while their ability to maneuver and conceal themselves is reduced. The environment amplifies all the effects associated with drone warfare, making adaptation not only necessary, but urgent.
Taken together, these elements point to a fundamental transformation. The battlefield is no longer characterized by intermittent observation, centralized fires, and relatively stable conditions. It is defined by continuous surveillance, distributed effects, contested spectrum, and rapid adaptation cycles.
In conclusion, drone warfare does not represent an incremental evolution of existing capabilities. It represents a change in the nature of operations.
The central issue is no longer whether unmanned systems should be integrated, but how forces must reorganize to operate effectively in an environment where:
detection is persistent
engagement is rapid
mass is decisive
and adaptation is continuous
For mountain warfare forces, this transformation is even more significant. If drones continue to be treated as secondary or supporting capabilities, the risk is not simply reduced effectiveness, but structural obsolescence.
However, recognizing the scale of the transformation is only the first step. The next question is whether this reality has already been reflected in our own institutional learning process.
For the MWCOE, this workshop is not an isolated initiative. It is part of a longer path of experimentation, reflection, and gradual adaptation. The following section therefore steps back from the battlefield itself and examines how previous MWCOE activities have approached unmanned systems, what has already been achieved, and where the gap between experimentation and real integration still remains.
6.1 – Drone Warfare as a Decisive Factor, an introduction overview
Drone warfare has moved beyond the status of an enabling capability and must now be understood as a structural component of the battlefield. This is not a projection of future trends, but a reality already observable in ongoing conflicts, where unmanned systems are employed continuously across all echelons, shaping how operations are conducted.
As said, the most immediate effect of this transformation is the emergence of a condition of persistent observation. Units can no longer assume that concealment will provide reliable protection, nor that exposure will be temporary. Instead, they operate in an environment where detection is increasingly likely and, once achieved, can be rapidly translated into engagement. The time previously available between being identified and being targeted has been drastically reduced, often to the point of being operationally irrelevant.
This phenomenon is directly linked to the growing density of unmanned systems across the battlefield. Density should not be understood merely as an increase in the number of drones operating in a given area. Rather, it describes the cumulative presence of multiple ISR platforms, FPV systems, loitering munitions, communication relays, autonomous sensors, electronic warfare assets, and Counter-UAS systems functioning simultaneously within the same operational space.
The significance of density lies in its cumulative effect. While a single platform may provide only temporary observation, a dense network of airborne sensors creates a condition in which observation becomes persistent rather than episodic. Detection is no longer dependent upon a specific platform being present at a specific moment. Instead, overlapping layers of sensors continuously monitor the battlespace, reducing observation gaps and increasing the probability that movement, emissions, or operational activity will be identified.
We can state that “air superiority is no longer our”
This shift fundamentally alters the logic of survivability. Protection is no longer primarily achieved through armour or fortification, but through the ability to avoid detection, reduce signature, and maintain mobility. In this context, the most significant vulnerability is not the platform itself, but the set of signatures it emits—visual, thermal, and electromagnetic.
At the same time, the widespread availability of low-cost unmanned systems has introduced a profound change in the economic logic of warfare. The ability to generate effects using relatively inexpensive and expendable platforms has created a form of cost asymmetry that challenges traditional assumptions. As a result, the decisive factor is no longer technological sophistication alone, but the capacity to generate mass, persistence, and rapid adaptation.
This dynamic directly contributes to the decentralization of air firepower. Capabilities that were once concentrated at higher levels of command are now available at company level. Small units are increasingly able to conduct reconnaissance, identify targets, and generate effects independently. This compresses decision-making cycles and shifts responsibility downward, placing greater demands on tactical commanders while simultaneously increasing their operational autonomy.
However, this increased availability of capability does not automatically translate into effectiveness. A critical issue highlighted by operational experience is the speed of adaptation. The ability to modify tactics, integrate new tools, and respond to adversary actions in short timeframes has become a decisive advantage. In environments where change occurs rapidly, institutional processes that operate on longer cycles risk becoming disconnected from operational reality. The challenge is therefore not only to acquire capabilities, but to adapt their use at the pace required by the battlefield.
Another defining characteristic of the current environment is the condition of the electromagnetic spectrum. Reliable communications and GNSS availability can no longer be assumed. Instead, degradation, disruption, and denial must be treated as baseline conditions. This reinforces the need for resilience, redundancy, and procedural adaptation.
These dynamics are further compounded by the saturation of the lower airspace. The space between ground level and a few hundred meters above it has become densely populated by a variety of systems, including ISR drones, FPV platforms, loitering munitions, and counter-UAS assets. This creates a highly dynamic environment in which multiple actors operate simultaneously, often without a shared understanding of the overall situation.
Operational experience from recent conflicts suggests that density itself has become a defining characteristic of contemporary warfare. Effects are generated not only by the capabilities of individual systems, but by the ability to employ multiple interconnected systems simultaneously. Density increases persistence, expands situational awareness, accelerates targeting cycles, complicates adversary decision-making, and places unprecedented demands on coordination and airspace management.
Consequently, the lower airspace should no longer be viewed as a secondary operational layer. It is progressively becoming a contested and highly dynamic domain whose management directly influences operational effectiveness, survivability, and freedom of maneuver.
In mountain warfare, the impact of this saturation is particularly pronounced. Terrain restricts movement, limits lines of sight, and channels both ground and air activity into predictable corridors. As a result, units are more exposed to observation and more vulnerable to targeting, while their ability to maneuver and conceal themselves is reduced. The environment amplifies all the effects associated with drone warfare, making adaptation not only necessary, but urgent.
Taken together, these elements point to a fundamental transformation. The battlefield is no longer characterized by intermittent observation, centralized fires, and relatively stable conditions. It is defined by continuous surveillance, distributed effects, contested spectrum, and rapid adaptation cycles.
In conclusion, drone warfare does not represent an incremental evolution of existing capabilities. It represents a change in the nature of operations.
The central issue is no longer whether unmanned systems should be integrated, but how forces must reorganize to operate effectively in an environment where:
For mountain warfare forces, this transformation is even more significant. If drones continue to be treated as secondary or supporting capabilities, the risk is not simply reduced effectiveness, but structural obsolescence.
However, recognizing the scale of the transformation is only the first step. The next question is whether this reality has already been reflected in our own institutional learning process.
For the MWCOE, this workshop is not an isolated initiative. It is part of a longer path of experimentation, reflection, and gradual adaptation. The following section therefore steps back from the battlefield itself and examines how previous MWCOE activities have approached unmanned systems, what has already been achieved, and where the gap between experimentation and real integration still remains.