In early August 2026, Ukraine launched six FP5 Flamingo cruise missiles from Kharkiv Oblast toward targets deep inside Russia. Russian sources claimed every single one was shot down—two over Belgorod, one over Voronezh, two over Lipetsk, one over Penza. Six launched, six intercepted, nothing hit. On Russian Telegram, the wonder weapon was written off as a dud.

But when Russian technicians pulled apart the wreckage, they found something unexpected: the engine had changed. For about a year, recovered debris showed the same Soviet-era AI-25TL engine, the single biggest bottleneck holding the program back. But the fragments from the newer missiles appeared to contain a British-made engine instead. On paper, that sounds like a simple part swap.
If the reports are right, Ukraine just removed the ceiling on how many of these it can build—and potentially added hundreds of kilometers to a weapon that already had a reported range of 3,000 km. The Flamingo is a strange missile by any standard. It’s huge: 12 to 14 meters long, a 6-meter wingspan, about six tons at launch, and a warhead weighing between 1,000 and 1,150 kg. For comparison, a Tomahawk carries about 450 kg out to a reported 1,600 km.
The Flamingo claims more than double the warhead and almost double the range. Hauling a one-ton warhead over 3,000 km takes a full-size turbojet, not a small engine from a cheap drone. Firepoint’s first answer was the AI-25TL, pulled from old Soviet L-39 Albatross trainer jets. The company’s entire philosophy was built on recycling: Soviet-era bombs for warheads, discarded engines for propulsion, and a fiberglass-and-carbon-composite airframe.
That’s how you get a missile that costs around half a million dollars instead of a Tomahawk’s two million. But there’s a catch: the scrap heap of Soviet engines doesn’t refill. Analysts flagged this risk early on, even before the Flamingo fired in anger. The supply of decommissioned L-39s was finite, and when Firepoint ran out of airframes to strip, it would effectively run out of missiles.
The company talked about building 13 missiles a month, aiming for 200—that would burn through the stockpile quickly. This is where smart design comes in. The Flamingo’s engine sits in a socket on top of the fuselage, not buried inside like most cruise missiles. It looks crude, but it’s modular.
Swapping in a different engine requires only minor modifications. So when the AI-25 supply started drying up, Firepoint didn’t need to redesign the missile; it just needed to find a comparable engine and bolt it on. The thrust class, around 17 kilonewtons, isn’t exotic. Western turbojets in that range are common, and most are actually smaller than the original.
Russian analysts reportedly haven’t identified the exact engine, but the pool of options is small. One likely candidate is the Honeywell TFE731 family, which produces 15. 6 to 19. 1 kilonewtons and weighs about 380 kg.
Over 9,000 of these have been built, many still in service across the global business aviation fleet, with a mature parts and overhaul industry. Instead of relying on a scrap heap, Ukraine might finally have a real supply chain. There’s another potential perk: Western engines in this class are generally more fuel-efficient. One analysis notes the TFE731 burns up to 15% less fuel than the AI-25TL under similar conditions.
Applied to the Flamingo, that could stretch the 3,000-km range by roughly 450 km—a rough projection, but significant. To understand what extra range and an unclogged production line mean, you have to see how the Flamingo fights. It’s subsonic, cruising at 850–900 km/h with endurance over four hours. It launches from an open trailer-mounted rail, eliminating the need for folding wings or specialized vehicles, and drastically cutting setup time.
Navigation relies on GPS and GNSS with inertial backup, plus AI-assisted route planning to avoid high-risk areas. But the real danger is how low it flies. Video assessments show it cruising at 30 meters or lower, following terrain contours. Firepoint’s director has said it can fly below 20 meters.
Why does that matter? Radar only works within line of sight. A ground radar trying to spot a missile at 30 meters altitude can only detect it out to about 21. 6 km before the Earth’s curvature blocks the signal—and that’s before hills, forests, and buildings.
To create a continuous interception belt against such low-flying threats, Russia would need radar stations every 30–40 km along the entire front, spanning 11 time zones. That’s impractical and unaffordable. Second, a one-ton warhead arriving at 950 km/h hits with enormous energy. It buries itself deep into structures before detonating, turning an explosion into a demolition.
When Ukraine hit the Titan Barrikady plant in Volgograd, analysts described collapsed girders, flattened walls, and wrecked heavy machinery—consistent with half a ton of explosives detonating inside. The Flamingo’s record began in late August 2025, when Ukrainian sources claimed at least three missiles crossed the Black Sea from Odesa and struck an FSB base near Armyansk in Crimea, killing one serviceman and damaging six hovercraft. Independent outlet Astra confirmed the attack but suggested it might have been a long Neptune instead. The missile went quiet, then reappeared in January 2026 against a hangar complex at the Kapustin Yar test range.
In February, six Flamingos targeted sites in Russia and Crimea, including the Votkinsk Machine-Building Plant, a core node of Russia’s ballistic missile industry, about 1,400 km away—the first time such a target had been hit. After that, a slump—missiles intercepted or off-target. Then came June. Five Flamingos hit the Titan Barrikady Federal Research and Production Center in Volgograd, site of final assembly for ballistic missile launchers and components, including the Iskander-M.
One outlet called it one of Ukraine’s most successful attacks of the war. A month later, a Flamingo struck the Vyatka Machine-Building Enterprise Avitec in Kirov, over 1,200 km away. Avitec builds essentially every major Russian air defense system, including surface-to-air missiles and components—and, according to Ukrainian intelligence, the starting gas generators required to ignite turbojets in Russia’s own cruise missiles. A Ukrainian missile burned down a factory that makes parts for Russian missile engines.
Ukraine’s engine problem and Russia’s engine problem were solved by the same weapon. So what would the new engine actually change? First, salvo size. Recent strikes involved five or six missiles.
Russian air defense just has to shoot down four out of five. But if the engine supply lets Firepoint produce substantially more missiles per month, salvos could become 15 or 20. Air defense is a saturation problem; each interceptor fired is one not available for the next salvo. Radars can only track a limited number of targets.
The difference between five and 20 inbound isn’t just more damage—it’s the possibility of actually landing a hit. Second, extra range opens up different targeting vectors. The August launch from Kharkiv flew straight through known air defense concentrations over Belgorod, Voronezh, Lipetsk, and Penza—the short way. With more fuel, you can fly the long way, from unexpected axes.
Launchers can also sit farther from the border, beyond Russian counter-battery drones and Iskander hunting. Third, there’s a pattern in how Flamingos were used. Starting in 2026, targets shifted to facilities deep inside Russia, specifically along the Volga and Kama rivers. Every confirmed attack by July 2026 hit a target on a major waterway.
One interpretation: Ukrainian planners figured out the missile performs best over water, where it can fly lowest without obstacles. That’s clever, but it makes the Flamingo effectively a river weapon—and Russia can angle its defenses accordingly. More range and fuel margin for aggressive terrain-following might let it shed that dependency and threaten targets not conveniently on a shoreline. Fourth, this could overcome the A-50U.
The reason Flamingos keep getting killed isn’t ground radar—the low flight handles that. It’s airborne radars. The Institute for the Study of War suggested Ukrainian targeting of Russian AWACS aircraft opened gaps in coverage precisely during the Volgograd strike. The July interception of five Flamingos was attributed to a timely A-50U launch patrolling areas ground radar can’t see.
In August, increased A-50U activity made the 6-for-6 likely possible. Here’s the catch: Russia has only five to seven A-50Us, one fresh from upgrades, and the base A-50 is over 40 years old, out of production since the Soviet collapse. So Russia’s counter depends on putting a handful of practically irreplaceable aircraft in the sky at exactly the right time and place. Even seven aircraft can’t cover 11 time zones.
If Flamingo output triples, Russia can’t triple its AWACS fleet. The replacement, the A-100, hasn’t entered serial production. This brings us to the bigger picture. For most of the war, Ukraine’s long-range strike capability depended on others.
Storm Shadow and SCALP-EG deliveries from Britain and France were basically it—donated weapons with donated strings, taking months to get approval for use even in occupied territory, let alone Russia. An election could turn off the tap. The Flamingo is the answer to that: Ukraine can build it, fuel it, target it, and fire it without asking permission, waiting for export licenses, or debating escalation. The strongest effect is a division of labor.
Ukraine’s air defense math is brutal. In normal months, Ukraine burns 60–70 Patriot interceptors. During heavy Russian attack waves, that jumps to 150–180—nearly three times the entire global production. Russia builds 40–50 Iskander-M and about 10 Kinzhals every month.
In early August, when Ukraine failed to intercept any Russian missiles at all, Kyiv asked European allies for help and got polite refusals. Germany declined, Romania called it a national security matter, the Netherlands said it had given everything it could spare. In late July, President Trump declined Zelensky’s request for 300 Patriot missiles, citing US stockpile shortages and the Iran crisis. But there’s another way to stop an Iskander from hitting Kyiv: destroy the factory before it becomes an Iskander.
That’s exactly what a Flamingo did at Titan Barrikady. And in Kirov, every launcher that never gets finished is a salvo never fired, which means a stack of Patriot interceptors never spent. Offense can be the best defense—and it’s the side Ukraine can scale domestically. There’s a version that goes further.
Firepoint is developing the FP7. X interceptor, aimed at reducing dependence on scarce Patriot PAC-3s. It’s done captive flight testing but hasn’t demonstrated repeated ballistic missile intercepts. Its advantage is cost and production capacity, not performance—the same principle as the Flamingo: fielding enough of something is better than running out of the crucial resource when you need it.
And the Flamingo is going international. Firepoint plans to produce solid rocket fuel at its own facility in Denmark in 2026. German company DIEHL has opened talks about producing Flamingos. Firepoint works closely with the UK’s Millennium Group, and the UAE’s Edge Group once tried to buy the company outright.
If production spreads to Europe, two benefits follow: factories there can’t be targeted by Russian missiles without essentially declaring war on NATO, and the Flamingo could reach the international market—a long-range strike tool NATO could use instead of its own options. Of course, there are caveats. Everything about the engine change comes from Russian analysis of recovered wreckage relayed through Ukrainian Telegram. No one has publicly identified the engine.
The range improvement is based on a hypothetical using a stand-in engine. Firepoint has also developed a fully domestic turbojet, assembling the first 10 test prototypes to avoid import dependence. So we may be watching two parallel efforts—buy Western now, build Ukrainian later—or a company saying different things to different audiences. What we do know is this: the Flamingo spent its first year missing more than it hit, and Ukraine kept firing it and kept fixing it.
Guidance improved, routing got smarter, targeting got more disciplined. Now the last remaining constraint appears to have been engineered around, thanks to the foresight to bolt the engine on the outside. Russia’s answer to the Flamingo is a handful of irreplaceable aircraft. Ukraine’s answer to that may be a factory.
And Russia’s aircraft losses keep piling up.


