The strategic calculus of aerial warfare traditionally dictates a stark choice: deploy expensive, manned multi-role jets for precision strikes, or sacrifice low-cost loitering munitions in a one-to-one economic exchange. However, as protracted conflicts accelerate deep-tech evolution, this paradigm is collapsing. While hostile forces continue to expend high-cost missile stockpiles on civilian centers in Kyiv, Ukraine’s defense-tech ecosystem is scaling an asymmetrical response designed to systematically dismantle military logistics and air defense grids from within.
At the center of this doctrinal shift is Fire Point. Led by Co-founder and Chief Designer Denys Shtilerman, the aerospace developer is transitioning unmanned aerial vehicles (UAVs) from simple kamikaze tools into complex, multi-strike tactical platforms.
In an interview with New Voice (NV / nv.ua), Shtilerman unveiled the operational reality of Fire Point’s heavy FP platforms, demonstrating how sub-kilovolt engineering and calculated volume are neutralising heavily fortified airspace deep behind enemy lines.
Weaponizing Velocity: The Air-to-Ground FP Platform
The core operational breakthrough for Fire Point centers on moving past the single-use limitation of standard loitering assets. By utilizing a high-mass flying platform, designated as the FP, the engineering team has successfully integrated an air-to-ground rocket payload.
“It is a very straightforward engineering solution”, Shtilerman stated (1:05). “If you are hunting a railway junction with a large cluster of fuel tanks, it makes no sense to lose an entire aircraft for a single tank. The same applies to suppressing mobile enemy air defense units. We integrated eight S-5 rockets, developed a custom precision targeting reticle, and deployed it”.
This deployment introduces critical tactical capabilities previously unavailable to unmanned units:
Multi-Target Interdiction: Instead of targeting a single locomotive, a single FP platform can deploy its rocket pod to fracture multiple high-value fuel assets and logistical nodes simultaneously (1:48).
Kinetic Suppression: The platform alters the behavior of mobile hostile air defense teams. The sheer kinetic threat forces these units to rapidly pack up their hardware and abandon their firing positions to avoid destruction (5:25).
Payload Adaptability: Because the FP architecture does not require deep adaptation to support heavy payloads, the frame functions as a modular truck in the sky, capable of re-routing power to high-end electronic warfare detectors or secondary strike assets (2:45, 7:22).
The Moscow Grid: Breaking the Impenetrable Paradox
The ultimate stress test for any long-range aerospace system is the multi-layered air defense network protecting the Russian capital – a grid featuring the world’s highest operational density of Pantsir-S1 and S-400 systems.
Conventional military doctrine suggests such a network is impenetrable to low-altitude legacy platforms. Fire Point’s operational data proves otherwise. During recent long-range operations, Ukrainian forces achieved a decisive tactical breakthrough by systematically oversaturating the hostile grid.
“To be honest, I personally doubted we would get through, but our military was confident, and a significant number reached their targets”, Shtilerman noted (14:11). “We completely overwhelmed their air defenses through volume. We intercepted internal communications showing that their Pantsir systems literally ran out of missiles trying to counter the mass”.
This operational success exposes a critical vulnerability in highly centralized, monocentric states. Because political authority, economic capital, and military decision-making are exclusively concentrated within the Moscow ring roads (15:33), achieving air dominance above this specific perimeter shifts the psychological risk assessment of the hostile elite. By forcing advanced air defense networks into total ammunition exhaustion, Fire Point and the Unmanned Systems Forces have demonstrated that centralized command structures cannot reliably insulate themselves from precision engineering.
