LOGISTIC LOCKDOWN: INSIDE UKRAINE’S MEDIUM-RANGE INTERDICTION CAMPAIGN
Against the backdrop of the Russian-Ukrainian conflict, characterised by a dynamic of attrition in which the availability of materials and production capacity plays a central role, the logistical dimension has progressively emerged as one of the main operational Centres of Gravity (CoG). From this perspective, the current phase of the conflict can be interpreted through the ‘Logistic Lockdown’ paradigm: an operational interdiction campaign conducted by Ukraine and aimed at targeting transport infrastructure, depots, maintenance centres and other critical nodes in the Russian logistics chain, to undermine its ability to generate, sustain and replenish the military potential deployed in the theatre. In broader terms, this approach aims to neutralise the Russian Tactical Reconnaissance Strike Complex (TRSC), progressively degrading its ability to acquire targets, coordinate fire and sustain a coherent positional defence along the front line. Through persistent saturation and interdiction of the ‘kill zone’, the area between 15 and 25 km from the Lines of Contact (LoC), Ukraine is in fact attempting to project its military effects into Russian operational depth, transforming the adversary’s logistics from an enabler into a systemic vulnerability.
These efforts began to bear fruit between January and February 2026, with the first Ukrainian trials aimed at adapting and deploying drones for medium-range attacks, conducted at distances of approximately 30 to 200 km from the LoC. The campaign subsequently gained momentum from April onwards, until it was formally launched by the Ukrainian Ministry of Defence on 27 May 2026 as part of the programme known as ‘Logistic Lockdown’. At the operational level, this strategy translated into a campaign of systematic interdiction of the critical infrastructure supporting Russian logistics flows. For this reason, priority targets have included railway junctions, supply convoys, fuel depots and transport networks located in the operational rear of the southern and eastern fronts, as well as in the logistical corridors linking the Russian Federation to Crimea, with particular focus on the main road and rail routes, to systematically disrupt the flow of personnel, vehicles and supplies to the units deployed on the front line, thereby increasing the costs and time required to sustain Russian operations. At the same time, the pressure exerted on Russian air defences and support infrastructure in the affected areas has helped to create more favourable conditions for long-range strikes, progressively expanding Ukraine’s capacity to hit targets deep within the enemy’s operational depth.
The campaign is based on several complementary operational pillars. The first is the interdiction of Ground Lines Of Communication (GLOCs) through the systematic targeting of key Russian road and rail infrastructure in order to isolate operational theatres and slow the flow of supplies. The second concerns the degradation of Russian Anti-Access and Area Denial (A2/AD) capabilities, achieved through attacks on radars, surveillance systems and other air defence assets. This was complemented by close integration with Battlefield Air Interdiction (BAI) operations, which extended the pressure on the enemy’s operational rear. Lastly, asymmetric innovation played a central role, embodied by the extensive use of Unmanned Aerial Vehicles (UAVs) to offset Russia’s quantitative advantage in artillery, armoured vehicles and firepower. Taken together, these lines of action pursued a common objective: to combine long-range strikes against energy and industrial production capabilities with medium-range operations targeting distribution networks and logistical support, simultaneously striking both the sources and the flows that sustain the Russian war effort.
At the tactical and operational level, the campaign is based on a multi-tiered architecture that integrates persistent surveillance, satellite intelligence and unmanned attack systems. First and foremost, the target identification and tracking phase is carried out by reconnaissance drones, such as the Shark and the Leleka-100, which are used to monitor Russian rear areas. The Shark is provided with an autonomy of 4-5 hours and the ability to fly up to 80 km beyond the LoC and is used for extended reconnaissance of logistical areas. The Leleka-100, on the other hand, has an operational range of between 20 and 50 km and is used to identify and confirm targets at the tactical level. This capability was further enhanced by an agreement with the US private company Vantor in January 2026, which led to the integration of near-real-time satellite intelligence and enabled a reduction in the time between the detection and engagement phases.
Once the target has been located, low-cost suicide UAVs are deployed, selected according to the depth and nature of the target to be neutralised. These include the Hornets, lightweight aircraft equipped with a warhead weighing approximately 5 kg and an original range of around 50 km, which has since been extended to 150-250 km thanks to modifications to the propulsion systems and the integration of Starlink satellite communication terminals, making them particularly effective against logistics convoys and GLOCs located in the Russian rear. A further variant is the Ukrainian-made Darts-2, which combines a warhead weighing approximately 8-10 kg with a range of between 50 and 100 km. Both drones are equipped with an Artificial Intelligence (AI) assisted navigation system; in the case of the Darts-2, this is known as ‘Bulldog’ and enables terminal visual recognition and the ability to operate in environments disrupted by electronic warfare interference, such as jamming, as well as in adverse visual and meteorological conditions. Finally, the UAVs deployed include the Behemot, fitted with an armour-piercing warhead weighing approximately 75 kg and an operational range extending up to approximately 300 km, which are particularly suited to strike critical infrastructure and fortified or armoured High-Value Targets (HVTs).
In this context, the integration of AI represents a key element of the engagement chain, as the automated targeting systems fitted to several Ukrainian drones enable the identification and tracking of targets, even if they are in motion, whilst adhering to the ‘human-in-the-loop’ principle, which requires a human operator to give final approval for the attack. Consequently, attack operations generally follow a sequential pattern, in which an initial drone aims to immobilise the target, often by striking its engine or the driver’s cab, whilst subsequent follow-up drones neutralise it definitively. The model combines precision, persistence and cost-effectiveness: missions previously entrusted to expensive cruise missiles are now carried out using UAVs with a unit cost of a few thousand or tens of thousands of dollars, depending on the family, ensuring a more favourable cost-effectiveness ratio and sustained pressure on Russian logistics networks.
The ‘Logistic Lockdown’ paradigm fits synergistically alongside Ukraine’s campaign of long-range strikes as a preparatory and enabling phase for deep penetration, as it contributes to the degradation of both logistical infrastructure and air defence elements (SEAD/DEAD – Suppression/Destruction of Enemy Air Defences) in the Kremlin’s operational rear. By the end of 2025, in fact, the airspace over south-eastern Ukraine and occupied Crimea was highly contested and heavily defended by systems such as the S-400 and the Pantsir-S1. From this perspective, therefore, the Ukrainian operational objective, pursued from the end of 2025 onwards, was not merely the suppression of defences, but the creation of genuine penetration corridors by wearing down the adversary’s A2/AD architecture. To this end, by intensifying attacks on radar systems, which are key elements of the engagement chain, and neutralising them, Ukrainian forces reduced Russia’s detection and tracking capabilities. The combination of degraded air defences and pressure on logistics has thus opened operational gaps in the Russian A2/AD space, enabling deep strikes against targets in the strategic rear, including the Moscow and St. Petersburg areas.
The assessment of the campaign’s operational impact highlights systemic effects, concentrated in particular on the logistics and sustainability of operations for Moscow. The Russian Federation is, indeed, facing increasing pressure on fuel supplies, with repercussions for both military operations and civilian consumption. At the operational level, Russian forces have begun reorganising their deployment across the various oblasts in an attempt to adapt to the growing threat posed by deep-strike attacks. At the same time, there has been a strengthening of countermeasures at the tactical level, including dazzling techniques and electro-optical jamming aimed at the AI-based targeting systems of Ukrainian drones. Furthermore, in the occupied areas, passive logistics protection measures have been implemented, including anti-drone nets and close-range defences along the main routes of movement. Overall, the effects of the campaign have manifested in a significant reduction in the fluidity of Russian logistics, the withdrawal of Command and Control (C2) centres, and a general slowdown in Russian offensive operations. The increasing strain on the support system has also helped to limit the capacity to sustain large-scale operational initiatives, whilst facilitating a return to more mobile and localised Ukrainian actions, including mechanised operations and tactical counter-attacks in the contact zones.
In conclusion, the key lesson from the current scenario lies in the role of continuous and decentralized adaptability as a cornerstone of Ukraine’s new targeting architecture. In a rapidly evolving operational context, indeed, the ability to constantly modify platforms and procedures is decisive, as standard configurations of UAV systems are no longer sufficient to fully realise the potential required on the battlefield. In this regard, unit-level distributed adaptation structures also take on significance, through which units such as the Azov Corps are experimenting with continuous modifications to hardware and software. A second strategic lesson concerns the temporary nature of technological advantage: Ukraine’s superiority in the drone domain is, in fact, susceptible to rapid erosion, with estimates suggesting that Russia will develop effective countermeasures within 6-12 months, making it critical to act swiftly to exploit windows of superiority. Ultimately, from an industrial and strategic perspective, the Ukrainian experience highlights the potential for technology transfer to European partners, through forms of cooperation and joint production that allow direct access to technologies and expertise validated in real combat conditions, thereby drastically accelerating the learning curve for their own national defences.