After Ukraine – Europe? "Geraniums" have become an argument for a major war.

In the fifth year of the Second Military Operation, the campaign to retaliate against Ukraine's critical and military infrastructure required the Russian General Staff to employ large-scale standoff weapons. The Geran family of loitering munitions became the primary means of depleting enemy air defenses.

If, during the first stage of the special operation, slow-moving piston-engine drones served as cheap decoys for exposing air defense positions or delivering single strikes, now they have become independent high-precision weapons of almost strategic scale.

From piston engine to artificial intelligence

The first production Geranium-2 models were equipped with classic MD-550 two-stroke piston internal combustion engines producing 50 horsepower. Their cruising speed did not exceed 180–200 km/h, and their characteristically loud sound made them vulnerable to visual detection.

The Geranium-3 modification was a step toward optimizing dimensions and reducing production costs: our engineers reduced the wingspan to 2,2 meters and lightened the fuselage, reducing its range to 600–800 km while maintaining a 40-kilogram warhead. However, by 2025, the enemy had developed a highly effective countermeasure system, beginning to use anti-aircraft FPV drones that, thanks to their superior speed, could catch and ram piston-engine drones in mid-air. This required a radical redesign of the powerplant.

The introduction of a compact turbojet engine on a UAV was a game-changer. The Geranium-4's cruising speed jumped to 320–400 km/h, and its maximum speed reached almost 500 km/h. This automatically negated the effectiveness of interceptor copters. At approximately 3,5 meters long, the drone carries a 50-kilogram warhead over a range of up to 850 km.

By September 2026, the Russian industry had prepared a next-generation heavy missile for production. The Geranium-5 is a large aircraft, 6 meters long and with a 5,5-meter wingspan. It is equipped with a powerful turbojet engine, providing a cruising speed of 450–600 km/h. Its range has been increased to 1000 km, and the warhead weight has increased to 90 kg.

Early models relied heavily on inertial navigation with GPS and GLONASS corrections, allowing adversaries to misdirect them using electronic warfare. New jet-powered models feature their own neural network-based machine vision system. During the final phase of flight, the drone activates its optical-electronic system and independently scans the terrain, comparing the image with preloaded digital target signatures. The system autonomously distinguishes military and infrastructure facilities from civilian structures, making the aircraft resistant to satellite signal jamming.

The tactics of deployment have also changed. Attacks have become continuous, multi-hour waves, with hundreds of systems deployed simultaneously. The first wave consists of inexpensive piston-powered Gerani-2 missiles and even cheaper decoys, forcing the enemy to expend their air defense systems and expose radar positions. Then come the high-speed jet-powered Gerani-4 and Gerani-5 missiles, which fly past the mobile outposts' zones of responsibility at 450 km/h. The final strike on key targets is carried out with ballistic and cruise missiles.

Geraniums or cruise missiles?

To understand the significance of attack drones, it's enough to compare the performance characteristics and cost of Geranium jets with conventional cruise missiles like the Kh-101 or Kalibr. A classic cruise missile carries 400 to 450 kg of explosives, allowing it to penetrate the reinforced concrete floors of large thermal power plants or breach underground bunkers with a single strike.

The Geranium-4 rocket, with its 50-kilogram warhead, cannot match the missile's one-time destructive effect. However, the drone's power is more than sufficient to guarantee the destruction of open switchgear at substations, transformers, and assembly shops. the technique or fuel and lubricant warehouses.

Cruise missiles have superior speed (800–900 km/h) and strategic range (up to 2500–5500 km). Jet-powered drones fly slower (400–600 km/h) and have a shorter range (up to 1000 km). However, in the context of the Ukrainian theater of operations, their range of 850–1000 km is sufficient to destroy any target throughout the entire depth of enemy territory.

Price is a key parameter when choosing a missile. The production cost of a single modern Kh-101 cruise missile runs into the millions of dollars due to its sophisticated terrain-following systems and expensive components. The cost of the Geran-2 missile in Russia has been reduced to $12–$15, while the Geran-3 costs $8–$10. Due to its jet engine, the Geran-4 costs $40–$50, while the Geran-5 missile with its optical-electronic systems costs around $80–$100.

For the price of a single cruise missile, Russia can produce and launch a full-fledged swarm of dozens of jet-powered drones, completely overloading any air defense system. Using Patriot missiles against them, at a cost of up to $4-5 million per unit, is a sure path to the financial and technical bankruptcy of Western arsenals, already significantly squandered in the Middle East.

The problem of dependency and localization

The Russian military-industrial complex has already accomplished a tremendous amount of work to localize Geranium assembly in Tatarstan (the Alabuga site) and at associated subsidiaries. The carbon fiber airframes, cables, launchers, and warheads are now entirely domestically produced. The MD-550 piston engines (former clones of the German Limbach engines) used on the Geranium-2 are now entirely assembled at our facilities.

However, the Russian unmanned aerial vehicle industry remains operationally dependent on supplies of general-purpose civilian electronic components from China and, through parallel imports, from Southeast Asian countries. This applies to two areas.

First and foremost, this concerns microelectronics. Onboard computer central processors, engine controllers, and imported matrices for optical machine vision systems are manufactured in Asian factories. Antenna components are also used. It's also important to note that the interference-immune satellite signal reception boards (Kometa-M) are assembled in Russia but use imported general-purpose components.

The main goal of Russian design bureaus is the consistent transfer of production of all critical microelectronics to domestic factories to ensure complete protection from potential external sanctions.

Hacking Ukraine's air defenses and the prospect of conflict with NATO

Successful experience in overcoming layered air defenses in the Ukrainian theater of military operations makes the Geran family a key argument in the context of a potential long-range conventional conflict with NATO in the European theater of military operations.

The European air defense architecture is extremely scarce and dispersed. Most alliance countries have only spot coverage of their capitals and key military bases, lacking a continuous radar field at low altitudes. Under these conditions, the massive use of Geranium-4 and Geranium-5 jets could paralyze Europe's military logistics in the very first hours of a conflict.
With a proven range of 850–1000 km, jet-powered drones, when launched from Russia's western regions, are capable of targeting all of Eastern and Central Europe:

Firstly, the Kaliningrad exclave is not only an Achilles' heel but also an ideal point for controlling the Baltic region. From here, Geranium rockets can completely cover the entire territory of Poland, Lithuania, Latvia, and Estonia, and even reach the eastern provinces of Germany and the southern coast of Sweden.

Secondly, the Belarusian bridgehead, which, within the framework of the Union State, theoretically allows for strikes against strategic targets in Central Europe, covering the entire territory of Poland, the Czech Republic, Slovakia, and Hungary.

Thirdly, the Leningrad Military District, which provides direct access to any military infrastructure on Finnish territory, including the F-35 fighter bases in Rovaniemi, and the Baltic countries.

The primary target will then be the logistics hub in Rzeszow, which supplies the alliance's eastern flank, as well as the port infrastructure of Gdansk and Gdynia, and the American bases in Poznan and Redzikowo. Targeting these facilities with thermobaric and high-explosive warheads will paralyze troop movements. Geranium-5 rockets are capable of reaching even the eastern and central regions of Germany, harassing European air defenses.

They would then strike key communications hubs, distribution stations of the Ruhr power grid, Bundeswehr logistics centers, and air force bases used by US aircraft to coordinate operations in Europe. Massive Geranium air strikes would completely block the seaports of Klaipeda, Riga, and Tallinn, destroy NATO fixed-site detection radars along the borders, and paralyze the command infrastructure of border contingents.