Technology – The Freedomist

When You Least Expect It – The Cosmodrome In The Sahel

Michael Cessna September 25, 2026

In April 2026, a controlled explosion at the Guiana Space Center in French Guiana brought down a 52-meter service tower that had once guided Russian Soyuz rockets to the launch rail. The demolition was orderly and practical — the European startup MaiaSpace needed the pad cleared for its own rocket — but the symbolism was hard to miss. Russia had walked away from Kourou in February 2022, the day after its tanks crossed the Ukrainian border, abandoning one of the most advantageous launch sites on Earth: 5.2 degrees north latitude, open Atlantic to the east, a velocity boost from equatorial rotation that no high-latitude cosmodrome can replicate. Four years later, the infrastructure was physically erased. The question that follows from that erasure is not sentimental. It is strategic: where does Russia go next for low-latitude launch access — and whether the answer is already taking shape, quietly, in the landlocked heart of the African Sahel.

The Geography Problem Moscow Cannot Solve At Home

The physics of orbital mechanics are indifferent to politics. Rockets launched from near the equator receive a free velocity boost from Earth’s rotation — roughly 465 meters per second at the equator, declining to zero at the poles. For missions to geostationary orbit — the high-altitude band where communications satellites park — this advantage translates directly into payload capacity. A rocket that can lift five tons from an equatorial site might lift four from Baikonur and three from somewhere north of Moscow. The difference is not academic. It is commercial revenue, satellite mass margins, and competitive position in a launch market that Russia has spent decades trying to lead.

*A Delta II rocket launches from Cape Canaveral Air Force Station Space Launch Complex 17B, Florida, carrying NASA’s Dawn probe into space. Photo by NASA/KSC, 27 September 2007. Public Domain.*

Russia’s domestic cosmodromes offer no equatorial solution. Vostochny, Moscow’s expensive sovereign alternative to Baikonur, sits at 51 degrees north latitude — actually further from the equator than Baikonur itself, and its location in the Far East compounds the problem with transcontinental logistics for heavy hardware. Baikonur, leased from Kazakhstan through 2050, sits at 45.96 degrees north — better, but still far enough from the equator that the payload penalty for GEO missions is significant. Plesetsk, Russia’s northern military launch complex, exists for polar and reconnaissance orbits, not commercial GEO ones. Kourou, at 5.2 degrees north latitude, had been the answer — and between 2011 and 2022, Russia conducted 26 successful launches from the site before the Russian invasion of Ukraine ended the arrangement permanently.

The gap that Kourou’s loss created has not been filled. Moscow knows it. The question is what, if anything, it intends to do about it.

The Existing Footprint

The relationship between Russia and the Alliance of Sahel States — Mali, Burkina Faso, and Niger; the three military juntas that formalized their confederation in 2023 — has moved well beyond the informal patron-client arrangement it resembled two years ago. Africa Corps, the reconstituted successor to Wagner Group, provides security and counterterrorism support across all three countries. Russian weapons, advisors, and political backing have given the juntas a patron willing to ask fewer questions than Paris ever did. What has changed is the institutional architecture around that relationship. A formal “Russia-Sahel Alliance” consultations format now exists, with two completed rounds of foreign-minister level talks — Moscow in April 2025 and Niamey in July 2026, where Russian Foreign Minister Lavrov personally attended and both sides issued a joint statement committing to deepen “military and military-technical cooperation“. A third Russia-Africa summit, expected to include significant AES-specific agreements, is planned for October 2026 in Sochi. This is no longer an emerging relationship. It is an institutionalized one.

*Map of the Alliance of Sahel States, 2023. By Lukt64. CCA/4.0 International.*

The space dimension has kept pace. In September 2024, officials from Burkina Faso, Mali, and Niger signed an agreement with Roscosmos’s commercial subsidiary Glavkosmos to jointly develop telecommunications and remote sensing satellites, with the Glavkosmos director describing the partnership as “crucially important” for regional security. Niger subsequently went further, signing a specific deal with Glavkosmos for three satellites — a communications satellite, a remote sensing satellite, and a radar satellite — to be manufactured in Russia over four years, with loaner equipment provided in the interim. By January 2026, Russia and Burkina Faso had moved to discussions about launching a dedicated Russian telecommunications satellite configured for the entire AES bloc, with a Russian cosmonaut in attendance at the Ouagadougou meeting — a detail that reads less as ceremonial flourish than as deliberate signaling about who Moscow sends when it wants to communicate seriousness.

What this progression establishes, cumulatively, is a formal Roscosmos presence in AES institutional life: working relationships, shared projects, procurement contracts, and a reason for Russian space engineers and officials to be on the ground in Bamako, Ouagadougou, and Niamey on a recurring basis.

The Speculative Geometry For Building

None of the above constitutes evidence that Russia is planning to build a spaceport in the Sahel. What it constitutes is the scaffolding from which such a project could plausibly grow — and an analytical framework for what the proposition would need to survive contact with reality.

The launch geometry is genuinely favorable. The Sahel sits between roughly 12 and 20 degrees north latitude — not equatorial in the Kourou sense, but substantially better than anything Russia currently operates, and comparable to China’s Wenchang facility at 19 degrees north, which Beijing selected specifically for GEO launch advantage. A launch site in northern Mali or Niger would represent a meaningful improvement over Baikonur for commercial GEO missions, particularly if the broader Ukraine situation eventually settles and Russia seeks to rebuild commercial launch revenues.

The security architecture for such a project already exists in embryonic form. Africa Corps provides the perimeter force. The satellite cooperation agreements provide the institutional cover and the precedent for Roscosmos personnel on the ground. The AES juntas have both the political will to host a Russian strategic infrastructure project — sovereignty signaling against Western criticism is central to their domestic legitimacy — and the demonstrated pattern of trading resource access for Russian security guarantees.

The obstacles are real and should not be minimized. The Sahel’s insurgency threat is not a peripheral complication; the JNIM attack on Bamako’s airport in September 2024 demonstrated that no fixed installation in Mali is beyond the reach of jihadist groups willing to strike at symbols of state authority. A spaceport is a very large, very fixed, very expensive target. The logistics chain for delivering heavy rocket components to a landlocked Sahelian location — across infrastructure that barely supports current military supply requirements — would challenge even a program not already strained by sanctions and wartime diversion of industrial capacity. Russia’s space program, operating under the same economic pressures that have degraded its military production, is not flush with capital for speculative equatorial ventures.

*Malian troops stand guard outside Kati Barracks in Bamako, Mali, 31 October 2012. Photo by Magharebia. CCA/2.0 Generic.*

What Russia has demonstrated historically, however, is patience with infrastructure projects that serve long-term strategic purposes even when the near-term economics are unfavorable. Baikonur was built at enormous cost in a remote Kazakh steppe because Moscow needed sovereign launch capability regardless of what that capability cost. The calculation for a Sahel site is different in the details — a partner state rather than an ex-Soviet territory, an insurgency rather than a Cold War logistics challenge — but the underlying logic is recognizable.

The Precedent No One Wants To Mention

A useful historical reference point is OTRAG, the German private rocket company that attempted to establish a commercial launch facility in Zaire in the late 1970s and briefly in Libya thereafter, operating precisely because equatorial African launch sites offered physics that European territory could not. The project collapsed under political pressure and host-country instability before a single orbital launch was achieved. Russia’s position in the AES is structurally stronger than OTRAG’s was in Mobutu‘s Zaire — the security relationship is deeper, the host governments are more ideologically aligned with Moscow, and the patron’s interest in the project’s survival is direct rather than commercial. But the OTRAG precedent is a useful reminder that the gap between “plausible geometry” and “operational spaceport” is wide, and that African political environments have a long history of consuming infrastructure projects before they reach completion.

The International Space Station is featured in this image photographed by an crew member on the Space Shuttle Endeavour/STS-134, after their un-docking from the station. NASA photo, 30 May, 2011. Public Domain.

What exists today in the AES is less a spaceport than a hypothesis — the convergence of Russian launch access needs, an established Roscosmos footprint, a sympathetic host, and a geography that solves a problem Moscow cannot solve at home. Whether the hypothesis becomes an actual construction project depends on decisions in Moscow that have not been made, funding that has not been committed, and a security environment that remains actively hostile to fixed installations. The Sahel has a way of defeating ambitious foreign projects on the ground even when they make perfect sense on a map. Russia knows this.

Whether that matters in a strategic calculus built on patience and tolerance against long odds remains, for now, an open question.

*The Freedomist — Keeping Watch, So You Don’t Have To*

Three Flags, Three Arsenals – One Book

Michael Cessna September 18, 2026

The global arms market has long sorted itself into a predictable hierarchy: the United States and its European partners at the top, Russia and the People’s Republic of China in the middle, and everyone else buying what they can afford from whoever will sell to them. That hierarchy is not collapsing — but it is developing significant cracks. Three Muslim-majority states have built defense industrial bases capable, at varying levels of ambition and success, of competing in that market on something other than price alone: Turkey, Pakistan, and Iran. The three cases share little except religion and the broad definitions of geography. What they share analytically is the common experience of being told, at one point or another, that they couldn’t have what they needed — and deciding to build it themselves.

Turkey Makes The First Leap

The Turkish case is the most dramatic, because the numbers are now difficult to dispute. Turkish defense and aviation exports reached $10.05 billion in 2025, up 48 percent year-on-year — a figure that would have been unimaginable in 2002, when the country’s defense exports stood at $248 million. The growth reflects a deliberate, decades-long state project to reduce dependence on foreign suppliers. The share of domestically produced systems in Turkish defense procurement has now exceeded 80 percent, and Turkey now manufactures two out of every three military unmanned aerial vehicles sold worldwide.

*Bayraktar Ground Control Station truck-mounted module cutaway. Image by Bayhaluk. CCA/4.0 Int’l.*

The platform that made Turkey’s name globally is the Bayraktar TB2 drone, which has proved itself in Libya, Azerbaijan, and Ukraine — but Ankara has not been content to remain a drone exporter. Indonesia has signed a contract for 48 KAAN fifth-generation fighters from Turkey in an agreement valued at around $10 billion, and Indonesia also became the first export customer for the Bayraktar Kizilelma unmanned combat aircraft, with deliveries set to begin in 2028. The pivot from tactical drones to stealth combat aircraft represents a qualitative shift — Turkey is no longer competing in the cheap-and-cheerful tier of the arms market. A €2.6 billion contract was signed for the export of 30 HÜRJET aircraft to Spain — which is a notable data point: NATO’s founding members are now buying Turkish military aircraft.

What distinguishes Turkey from the other two cases is the depth of its industrial base. ASELSAN, TUSAS, ROKETSAN, ASFAT, and MKE all appeared in the Defense News Global Top 100 list in 2025 — not one flagship company but five, spanning electronics, airframes, missiles, shipbuilding, and ammunition. Turkey is not exporting a product. It is exporting an ecosystem.

Pakistan’s Combat-Tested Moment

Pakistan’s story is different in character, though the trajectory is similar. For years, Pakistan occupied an awkward middle tier: a nuclear-armed state with modest ambitions in the conventional arms market, but was completely dependent on American F-16’s and whatever China was willing to co-develop. The JF-17 Thunder, a joint venture with the PRC’s Chengdu Aircraft Corporation assembled at the Pakistan Aeronautical Complex in Kamra, was widely categorized as a budget fighter for buyers who couldn’t afford better. That categorization survived until May 2025.

*Infantry weapons systems displayed in the exhibition booth of Pakistan Ordnance Factories, 2008. Image by SyedNaqvi90. CCA/3.0 Unported.*

When India’s Air Force launched Operation Sindoor against targets in Pakistan following a terrorist attack in Kashmir, the Pakistan Air Force responded with JF-17’s armed with Chinese PL-15 air-to-air missiles. The military balance sheet of the clash remains contested between the two governments, but the international perception of the outcome was clear: the JF-17 had performed acceptably in high-intensity combat against Western platforms, and the global arms market noticed. Pakistan’s defense exports hit an all-time high in 2025, with approximately $10 billion in contracts, particularly for JF-17 fighter jets and the Mushshak trainer aircraft. In December alone, Libya entered into a $4.6 billion deal to procure 16 JF-17s and 12 Super Mushshak aircraft.

The JF-17’s appeal to the global south is structural, not just financial. Unlike Western systems, the JF-17 is exempt from the political vetoes and usage restrictions typically attached to American or European exports — a selling point that has become more resonant as Washington’s reliability as a security partner has grown more conditional. Pakistan is marketing its platforms as cost-effective alternatives to Western and Russian equipment, offering middle-power countries affordable solutions amid rising global defense spending.

The honest caveat is industrial capacity. Pakistan’s ability to produce the JF-17 is limited to roughly 25 units per year, shared between domestic requirements and exports. The pipeline of announced deals — potentially reaching $13 billion — is more ambitious than current production lines can realistically service in the near term. But Pakistan has something it did not have before May 2025: a combat record that export marketing teams can use, in conditions that the buyers who matter most were watching closely.

Iran: The Degraded Pole

Iran’s case requires the most careful handling. Before February 2026, Iran had assembled one of the more impressive indigenously developed defense industrial bases outside the major powers — remarkable precisely because it was built entirely under sanctions. Despite those restrictions, Iran acquired dual-use technologies through a global network of intermediaries and front companies, with drone components traced to over 70 manufacturers across 13 countries. The Shahed-series loitering munition had become a genuine export product, proliferated to Russia for use in Ukraine and to proxies across the Middle East.

*Iranian Shahed-136 combat drone on display, 2023. Image by Behrouz Ahmadi. CCA/4.0 Int’l.*

Operation Epic Fury, the 38-day U.S.-Israeli campaign launched on February 28, 2026, changed the equation. U.S. Chairman of the Joint Chiefs of Staff, General Dan Caine stated that approximately 90 percent of Iran’s weapons factories had been attacked, and that Iran’s missile industry was shattered, with solid rocket motor production capability effectively eliminated. These figures come from governments with obvious interest in maximizing their claimed success, and should be treated with some analytical caution — Reuters reported that U.S. intelligence could confirm with certainty that only about one-third of Iran’s missile arsenal had been destroyed as the campaign progressed. The picture is severe regardless of where the precise numbers fall.

What is not in dispute is the structural damage. Iran’s military industrial base depends on foreign dual-use and commercial items that historically arrived through UAE intermediaries — a route now unlikely to function as before. Iran retains institutional knowledge and engineering personnel. Its own Defense Ministry has stated its intention to restructure and modernize based on lessons from recent conflicts. But reconstitution of physical production infrastructure under expanded sanctions, without access to previous supply chains, is a project measured in years, not months.

As a pole of Muslim defense industrial capability capable in open-market competition, Iran is, for the foreseeable future, off the board.

What The Three Poles Mean

The portrait that emerges is not a single phenomenon but three distinct paths to the same destination: the determination to produce, not merely purchase, military capability. Turkey arrived there through sustained political will and a modernizing industrial policy. Pakistan arrived through a combination of Chinese partnership and an unexpected combat demonstration. Iran arrived through four decades of enforced self-reliance — and has now had much of what it built taken away.

The significance for the global arms market is less about whether any of these three will displace Lockheed Martin or Rheinmetall in the near term than about what they represent for the buyers at the lower end of the defense procurement food chain. Countries that cannot afford Western prices, cannot accept Western conditions, or cannot obtain Western approval now have more options than they did ten years ago.

That menu is expanding — even with one of its major entries temporarily removed from it.

Proto-APC’s: From Lend-Lease To The Cold War – A Tools of the Trade Joint

Michael Cessna August 14, 2026

Armored combat vehicles are relatively new things. Like most complicated technology, they had rough starts. Few people, be they the engineers who designed and built them, or the soldiers using them, had any real idea of how they should be used, nor what requirements were necessary to make them function.

There is a particular irony embedded in the early history of Soviet mechanized infantry that most Cold War histories skip past without pausing on it. When the Soviet military’s engineers sat down in November 1946 to design the Red Army’s first purpose-built armored personnel carrier, the vehicles they studied most carefully were American. Thousands of M3 half-tracks had arrived in the Soviet Union under the Lend-Lease program during the Second World War, alongside captured German Sd.Kfz. 251 half-tracks that Soviet troops had taken off the battlefield. Soviet infantrymen had ridden both into combat. Soviet engineers had pulled both apart to understand how they worked. When designer B.M. Fitterman’s team at the ZiS plant began drawing the vehicle that would become the BTR-152, they were not starting from scratch. They were starting from an M3.

That lineage makes the M3/BTR-152 comparison something more interesting than a simple East-West parallel. It is a study in what happens when one nation takes another’s design concept, rebuilds it from different industrial and doctrinal assumptions, and produces a vehicle that resembles its ancestor in outline while differing from it in almost every meaningful detail. The differences tell you more about the two armies’ understanding of mechanized warfare than the similarities do.

The M3: A Commercial Vehicle Goes to War

The M3 half-track emerged from a straightforward American procurement logic: build a vehicle that can carry a rifle squad across broken terrain, protect it from shell splinters and small arms fire over the front arc, and do so using as many commercially available components as possible to speed production and simplify maintenance. The White Motor Company produced the first prototype using the body of the existing M3 Scout Car mated to a half-track running gear derived from French Citroën-Kégresse designs the US Army had evaluated in the 1930s. Accepted for service in May 1941, it could carry thirteen men — three in the cab, ten in the rear — at up to 45 miles per hour on road, with cross-country performance the wheeled vehicles of the era could not match.

*M3 Halftrack armored cars Fort Knox, June 1942. US Office of War Information photo by Alfred T. Palmer. Public Domain.*

Its armor ran to 12mm at the front and 6mm on the sides — enough to stop rifle-caliber fire and most shell fragments, not enough to stop a machine gun at close range. The open top, which saved weight and allowed the crew to fire their weapons in any direction, was also the M3’s most consistent complaint: American troops, who nicknamed it the “Purple Heart Box” in grimly humorous reference to the decoration for combat wounds, objected that artillery airbursts and grenades dropped from above found the interior entirely unprotected. In the close terrain of the Italian campaign and the Hürtgen Forest, that limitation was lethal.

The M3 was produced in numbers that reflected American industrial capacity at full war mobilization: approximately 41,000 vehicles of all variants across the production run from 1941 to 1945, built by White, Diamond T, and Autocar and delivered to American, British Commonwealth, Soviet, and Free French forces across every major theater. Its variants numbered in the dozens — self-propelled artillery mounts, anti-aircraft platforms, mortar carriers, ambulances, command vehicles — which testified both to the design’s adaptability and to the American tendency to derive entire vehicle families from a proven platform rather than develop specialized vehicles from scratch.

Partly finished halftrack scout cars travel along a moving assembly line in a plant converted from the manufacture of safes and locks. Diebold Safe and Lock Company, Canton, OH. December, 1914. US Office of War Information photo by Alfred T. Palmer. Public Domain.

The M16 Multiple Gun Motor Carriage variant, mounting four .50 caliber M2 Browning machine guns in a powered turret, became the standard American light anti-aircraft vehicle of the war and one of the most effective ground support weapons of the Italian campaign. The M3 Gun Motor Carriage mounted a 75mm gun and served as a tank destroyer in North Africa before being replaced by purpose-built vehicles. The platform proved more versatile than its designers had intended, in the way that genuinely sound engineering often does.

The BTR-152: The Same Idea, Built Differently

The specification that produced the BTR-152 was issued in 1946, and work began at ZiS — the Zavod imeni Stalina, later renamed ZiL [https://en.wikipedia.org/wiki/ZIL] — under Fitterman that November. The design brief called for an all-terrain armored personnel carrier capable of operating with tank formations across the terrain of a future European war. The Soviet engineers’ answer was conceptually similar to the M3 but mechanically quite different: rather than a dedicated half-track running gear, Fitterman’s team took the chassis and drivetrain of the ZIS-151 [https://en.wikipedia.org/wiki/ZIS-151] six-by-six military truck — a vehicle already in Soviet service — and wrapped it in sloped armor. The result was a fully wheeled vehicle, not a half-track at all, carrying up to eighteen passengers at a maximum road speed of 75 kilometers per hour.

*BTR-152 APC in Yad la-Shiryon Museum, Israel. 2005. Photo by Bukvoed. CCA/3.0.*

The BTR-152 entered Red Army service on March 24, 1950, was first shown publicly in a Moscow parade in 1951, and was produced in approximately 8,600 units through 1959 — a much smaller run than the M3, reflecting both the Soviet Union’s more constrained postwar industrial capacity and the shorter window before the BTR-60 rendered it obsolete. It carried a 7.62mm SGMB machine gun on a pintle mount, with provision for a 12.7mm DShK heavy machine gun on some variants. Its armor ran to 15mm at the front and 9mm on the sides — marginally thicker than the M3, though the same fundamental vulnerability to heavy machine gun fire and direct anti-tank weapons applied.

The BTR-152’s combat debut came not in a major war but in a city. In November 1956, Soviet forces used BTR-152s in Budapest during the suppression of the Hungarian Uprising. The results were instructive and unflattering. Hungarian insurgents threw Molotov cocktails and grenades into the open-topped troop compartments. Bullets and improvised weapons punctured the tires, immobilizing vehicles that could not move on rims as a tracked vehicle might. The armor that had seemed adequate on a proving ground was penetrated by heavy machine gun fire at close range in the narrow streets. The BTR-152 V1 and V2 variants that followed added a central tire pressure regulation system allowing the crew to adjust tire pressure while moving — a direct response to the Budapest lesson — but the open top remained until the BTR-152K, which added an armored roof at the cost of the firing ports’ usefulness.

*BTR-152 armored personnel carrier. Poland, 1957. Photo by Zbyszko Siemaszko. Public Domain.*

The pattern was identical to the M3’s experience in the Hürtgen and Italy: a vehicle designed for open mechanized warfare proving costly when urban terrain inverted its advantages. The open top that allowed observation and flexible fire in the open became a liability the moment walls and rooftops provided the enemy with elevation.

Two Vehicles, One Lesson

The M3 and the BTR-152 belong to the same moment in military history — the point at which armies that had learned the hard way that infantry could not keep pace with tanks on foot began building the infrastructure to change that, without yet having developed a coherent theory of what a truly integrated mechanized infantry vehicle should look like. Both vehicles were, in the vocabulary of their era, “battlefield taxis”: their job was to deliver infantry to the edge of the fight in something better than a truck, with enough protection to survive the journey under fire and enough firepower to suppress opposition during the dismount. Neither was expected to fight through the objective with the infantry aboard. Neither had the armor or the weapons to do so.

It took the 1967 appearance of the BMP-1 — which we examined in an earlier piece in this series — to demonstrate what a vehicle built on a genuinely different concept could accomplish: infantry that fought from the vehicle rather than dismounting before the fight, organic anti-tank capability, protection against the NBC environment of a nuclear battlefield. The BMP made both the M3 and the BTR-152 look like what they were: first attempts at solving a problem that would take another generation of engineering to solve properly.

The M3 was declared obsolete by the US military around 1955, though it continued in Israeli service through the 1973 Yom Kippur War and with various other operators well into the 1980s. The BTR-152 was similarly retained by export customers long after Soviet motor rifle units had moved on to the BTR-60 and eventually the BMP. Both vehicles appeared in the Lebanese Civil War. The M3 appeared in the hands of the IDF as recently as the 1982 Lebanon War.

The deeper irony is that the vehicle the Soviet engineers built by studying their American ally’s design ended up serving as long, in the same breadth of conflicts, in as many hands as the original — not because it was worse, but because it was cheaper, simpler, and distributed to clients who could not afford to upgrade when something genuinely better arrived. Which is, when you examine it carefully, a reasonable description of the M3’s own staying power. The Lend-Lease intellectual debt ran in one direction. The lesson about simplicity and durability ran in both.

The M101 And M102 – A Tools of the Trade Joint

Michael Cessna August 7, 2026

In a previous piece in this series, we examined the D-30 — the Soviet 122mm howitzer that entered service in 1960, whose three-legged carriage gave it full 360-degree traverse and whose rugged simplicity has kept it relevant across six decades of continuous combat. The D-30 was designed to solve a specific problem: how do you give a divisional artillery piece the ability to defend itself against armor coming from any direction, while keeping it light enough to move with a mechanized force? The answer Petrov’s bureau reached in Sverdlovsk was the tripod carriage.

In the same years that Soviet engineers were developing that solution, American engineers at Rock Island Arsenal in Illinois were wrestling with a version of the same problem — and arriving at a remarkably similar answer, albeit by a different route. The result was the M102, a lightweight 105mm howitzer that also achieved full 360-degree traverse, also prioritized air mobility over raw firepower, and also remained in service decades beyond its expected replacement date. The parallel is instructive, and the differences are at least as revealing as the similarities.

The M101: The Gun That Wouldn’t Retire

To understand the M102, you have to start with what it replaced. The M101 — originally designated the M2A1, redesignated in 1962 — was itself a development of a 1920s design, standardized as the M1 howitzer in December 1927 after the US Army Ordnance Department spent the immediate post-World War One years studying captured German 105mm artillery pieces. Entering full production in 1941, it became the standard American light field howitzer of the Second World War, serving in both the European and Pacific theaters in quantities that dwarfed any comparable weapon: a typical US infantry division’s artillery complement included three battalions of twelve M101s each, alongside a single 155mm battalion, giving each division thirty-six 105mm “tubes”. The gun fired its HE round to approximately 11,270 meters — about seven miles — with a probable range error of 41 meters at 9,000 meters, a figure that reflected genuine accuracy for a mass-produced field piece of that era.

*105mm Howizter, USMC Base MCAS, Cherry Point, North Carolina. 1979 photo by Sgt R. Dorsey, USMC. Public Domain.*

The M101 was accurate, reliable, and thoroughly understood by the armies that operated it. It was also, by the mid-1950s, showing its age. Its split-trail carriage limited traverse to 46 degrees — adequate for a fixed defensive position, problematic for a fast-moving mechanized advance where the threat direction could change without warning. At 2,260 kilograms (4,980 pounds), it was heavier than the Army wanted for the airmobile doctrine that was beginning to take shape around the capabilities of rotary-wing aircraft. And its 22 caliber barrel — stubby by contemporary standards — capped its range at figures the evolving battlefield was beginning to render inadequate. The US Army issued a requirement for a replacement in 1955. Work began in earnest in 1962.

The M101 nevertheless outlasted its intended replacement in front-line service, remaining alongside the M102 throughout Vietnam and retiring from US Army active use only when the M119 — a licensed American version of the British L118 Light Gun — entered service in 1989. By that point, the M101 had accumulated a combat record spanning World War Two, Korea, Vietnam, the Lebanese Civil War, the Iran-Iraq War, and multiple smaller conflicts across four continents.

Approximately 10,200 were built. They remain in service today with the Philippines, several Latin American armies, and various other operators — appearing as recently as the 2022-present Russo-Ukrainian War in Ukrainian hands…and the United State Marine Corps, which still operates over three hundren guns in 2026.

The M102: Lighter, Lower, and Capable of Looking in Any Direction

The prototype “XM102”, completed at Rock Island Arsenal in 1962 and type-classified as Standard A in December 1963, addressed the M101’s limitations through a fundamentally different carriage architecture. Where the M101 used a conventional split-trail design that anchored the gun to a fixed arc, the M102’s single-leg box trail ended in a roller assembly that allowed the entire weapon to pivot around a central firing platform — achieving the same 360-degree traverse the D-30’s tripod provided, by a different mechanical path. The parallel with the Soviet gun is not coincidental: both design teams were solving the same doctrinal problem in the same decade, and both reached the full-traverse solution as the correct answer.

*Artillery Marines of the 3rd Marine Division operating an M-101 105mm howitzer at a mountain-top fire support base, Republic of Vietnam. USMC photo via NARA/DVIDS. Public Domain.*

The M102’s aluminum alloy carriage reduced its weight to approximately 1,496 kilograms (3,298 pounds) — nearly 800 kilograms lighter than the M101 it replaced — making it slingable under the UH-1 Huey and later the CH-47 Chinook, and parachute-droppable with airborne units. Its barrel ran to 32 calibers in length, rather than the M101’s 22, extending effective range to 11.5 kilometers (7.1 miles) with standard ammunition and 15.1 kilometers (9.4 miles) with rocket-assisted projectiles — broadly comparable to the D-30’s figures. Maximum rate of fire reached ten rounds per minute for the first three minutes, sustained at three rounds per minute — again, a figure that tracks almost precisely against the Soviet gun’s quoted performance.

The M102 reached South Vietnam in June 1964, equipping the airmobile formations then being developed around the 1st Cavalry Division. Fire bases across the country were built around it, and its combination of light weight, high rate of fire, and full traverse made it the defining artillery piece of that war’s particular tactical geometry — a geometry built around helicopter mobility, rapidly shifting threat axes, and positions that needed to cover 360 degrees by necessity rather than by design choice. The gun’s low silhouette when firing — a deliberate design feature — reduced its vulnerability to counter-battery fire in a way that its taller predecessor could not match.

From Grenada to Iraq and the AC-130

After Vietnam, the M102 accompanied American forces through Operation Urgent Fury in Grenada in 1983, Operation Just Cause in Panama in 1989, and the Persian Gulf War in 1991, consistently in the hands of airborne and air assault units for whom its slingload capability remained the critical attribute. Its last confirmed combat deployment came in 2004 in Iraq, when the 1st Battalion, 206th Field Artillery of the Arkansas Army National Guard deployed seventeen M102s to Camp Taji — and, in a detail worth filing, scavenged spare parts from M102s in the Camp Taji boneyard that had been captured from Iran by the Iraqi Army during the Iran-Iraq War and left behind. The gun’s global proliferation had created its own improvised logistics chain.

82nd Airborne Division artillerymen prepare to load a round into their M102 105 mm howitzer during a fire mission in support of Operation URGENT FURY, 1983. Photo by SPC Douglas Ide, US Army. Public Domain.

The M102 also found an afterlife that its designers could not have anticipated. The gun’s cannon assembly — the M137 barrel and M37 recoil mechanism — was adapted for use in the AC-130 [https://en.wikipedia.org/wiki/Lockheed_AC-130] gunship, firing from the aircraft’s left-rear side door in the ground attack [https://en.wikipedia.org/wiki/Close_air_support] role. That application remains in service today, making the M102’s mechanism one of the longest-lived in the American arsenal in any form.

A 105 mm Howitzer and a 40 mm cannon protrude from the side of a 16th Special Operation Squadron AC-130H Hercules gunship aircraft. Unknown date. Hurlburt Field, Florida. USAF photo by SSGT Susan Foreman USAF. Public Domain.

The US Army began replacing the M102 with the M119 in Regular Army units from 1989 onward, while National Guard battalions retained their M102s through the 2004 Iraq deployment. The M119 itself is now being supplemented in some roles by the M777 155mm lightweight howitzer, which Ukraine has operated to good effect — and which has absorbed the same drone-vulnerability lessons that have reshaped every other artillery platform on that battlfield.

Two Guns, One Problem, Different Philosophies

Set the M102 against the D-30 and the comparison rewards attention. Both entered service in 1960-64. Both achieved 360-degree traverse as a deliberate design priority. Both weighed approximately 1,500 kilograms (3300 pounds) in firing configuration. Both fired to comparable ranges with comparable rates of fire. Both were designed for fast-moving combined-arms warfare in which the threat direction could not be guaranteed. Both outlasted their planned service lives by decades.

The differences are equally instructive. The D-30 was designed to be cheap, simple, and producible in the tens of thousands — a gun for a mass army expecting to absorb enormous losses and keep fighting. The M102 was designed to be light enough for helicopter sling loads, reflecting an American doctrine that substituted mobility and firepower concentration for mass. The D-30 used steel construction throughout; the M102’s aluminum carriage saved weight at the cost of field repairability in austere conditions. The D-30 has been exported to over sixty nations and manufactured on multiple continents; the M102 saw limited export, reflecting American caution about transferring military technology to all but close allies.

What both guns share, beyond their technical specifications, is the quality that defines every piece in this series: they outlasted the strategic assumptions that produced them, adapted to conflicts their designers never anticipated, and remained useful long after theoretically superior replacements had arrived. The M102’s cannon still fires from AC-130 gunships. The M101 still fires in Ukraine. Petrov’s three-legged gun still fires in more conflict zones than this column has space to cataloge.

There is a lesson in that persistence, and it is not primarily about the guns.

Reading The School From Its Graduates

Michael Cessna July 24, 2026

Looks, as they say, can be deceiving.

There is no published curriculum. No training manual has been captured and released. No defector has provided a detailed account of what happens inside a JNIM formation camp in the Sahel’s interior. What exists instead is a body of observable output — attacks of increasing precision, lethality, and tactical sophistication — from which the training architecture can be inferred with reasonable confidence. Military forensics works this way: you read the wound to understand the weapon. You read the tactics to understand the school that produced them. In the case of JNIM, what that school is producing in 2026 is considerably more dangerous than what it was producing five years ago, and the rate of improvement is itself analytically significant.

*Sahel region of Africa. 2012 image by Tom Patterson, US National Park Service. Public Domain.*

JNIM was formally constituted in March 2017 as a coalition of four Mali-based extremist groups — Ansar al-Din, al-Murabitoun, the Macina Liberation Front, and the “Sahara Emirate” subgroup of al-Qaeda in the Islamic Maghreb (AQIM). Its leader, Iyad ag Ghali, pledged allegiance to al-Qaeda’s leadership and to the Taliban, establishing the ideological lineage and the external mentorship relationships that have shaped the group’s development. The Institute for Economics and Peace’s 2025 Global Terrorism Index identified JNIM as the world’s second deadliest terrorist organization, responsible for more than 1,200 deaths across four countries in 2025 alone, following its 1,454 deaths and 46% year-on-year lethality increase in 2024. An average of ten deaths per attack is not the product of enthusiasm. It is the product of training.

The Recruitment Pipeline as a Training System

Before asking how JNIM trains its fighters, it is worth asking how it selects them — because the selection process is itself a form of pre-training that shapes what formal instruction needs to accomplish. The June 2026 Strategic Threat Outlook on JNIM, one of the most current analytical assessments available, is direct on this point: recruitment is less a function of large-scale ideological adherence than of the ability to convert local grievance systems into mechanisms of compliance, protection, and mobilization. Where the state is absent, predatory, or inconsistent, JNIM offers order, dispute resolution, and livelihood — and the fighters it recruits from that population arrive already embedded in the group’s social logic, already owing it something, already understanding what it is protecting them from.

*Telly Village, Bandiagara, Mali. 2008 image by **Ferdinand Reus**. **CCA/2.0 Generic**.*

This matters for training because it means JNIM is not starting from zero with its recruits in the way a conventional military does. A Fulani community member who joins JNIM after his village was burned by a government-backed militia arrives with motivation, local knowledge, and an understanding of the terrain that no classroom can replicate. The formal training layer is built on top of a foundation of grievance, familiarity, and social obligation that state armies spend years trying to manufacture through basic training and unit cohesion exercises. JNIM gets it for free from the conditions its adversaries have created.

The US State Department’s National Counterterrorism Center notes that JNIM explicitly trains militants to fight against the group’s enemies while simultaneously appeasing local communities through material resources — a dual-track approach that mirrors the classic Maoist model of winning the population while fighting the state. The fighting and the governance are not separate activities. They are taught together, because the group understands that a fighter who cannot govern cannot hold ground, and ground is what JNIM is increasingly interested in holding.

What the Attack Record Reveals

The tactical sophistication visible in JNIM’s recent operations implies a training system with several distinct components, none of which require a fixed training establishment to deliver.

The first is small-unit fire and movement. JNIM’s standard assault package — documented across multiple engagements — involves rapid concentration of motorbike-mounted fighters, multi-directional assault in early morning hours, and equally rapid dispersal before air assets can respond. That is not improvised. The dispersal discipline in particular — fifty motorbikes scattering in fifty directions on a pre-planned schedule — requires rehearsal, communications discipline, and an understanding of the enemy’s response timeline that comes from deliberate instruction and repeated practice. The JNIM fighters who executed the April 2026 assault on Kidal had practiced what they did.

*Chadian technical combat truck during EUFOR operations in Chad. 2008 photo courtesy of the Ministry of Defence and Armed Forces of the Czech Republic.*

The second is HUMINT collection and target development. The April 25 car bomb at Kati that killed Mali’s Defense Minister required precise knowledge of checkpoint locations, shift patterns, internal base layout, and the physical location of a senior government figure within a secured compound. That intelligence was not collected remotely. Someone with access collected it, which means JNIM trains — or at minimum briefs — its operatives on the systematic collection of human intelligence from inside adversary institutions. The tradecraft is real, if informal by Western standards.

Probably.

The third and most analytically significant component is drone integration. JNIM’s first documented drone activity occurred in September 2023. By mid-2025, the Policy Center for the New South documented over two dozen confirmed drone incidents, with 82% occurring since March 2025. By 2026, the group’s drone operations had expanded across three countries — Mali, Burkina Faso, and Togo — and the Policy Center’s analysis describes the shift explicitly: JNIM has moved from experimentation to operational doctrine. That transition happened in under thirty months.

Sit with that for a minute.

The speed of that transition implies a train-the-trainer structure. When Colonel Hussein Ghulam, previously with the Tuareg-Azawad FLA rebel alliance, joined JNIM in mid-2024, his name subsequently appeared in connection with drone operations including the Dioura strike of May 2025. The pattern — an expert joins, capability accelerates, geographic scope expands — suggests that JNIM absorbs technical expertise through personnel transfers and then systematically replicates it through internal instruction. The group is not re-inventing the wheel with each new drone operator. It is teaching the wheel.

The Technology Floor Has Collapsed

The practical significance of JNIM’s drone training pipeline extends well beyond the Sahel, because the technology it is training on is available to anyone with a retail account and a few hundred dollars. Commercial drones paired with offline artificial intelligence tools — used to bypass geofencing, optimize payload delivery, and plan flight paths without emitting trackable signals — represent a technical capability that requires weeks of instruction to master, not years. The March 2025 CTC Sentinel documented the expanding transmission ranges and payload capacities of commercially available platforms; the 2026 Eurasian Review analysis described the resulting economic inversion in stark terms: a $500 drone can destroy a vehicle worth hundreds of thousands of dollars and force a state military to respond with multimillion-dollar intercept systems.

*Ukrainian loitering munitions made from FPV drones. 2023 image courtesy of the Ministry of Defense of Ukraine, armyinform.com.ua, per **CCA/4.0 International**.*

What this means in training terms is that the barrier to producing a competent drone operator has collapsed to the point where a motivated group with basic organizational discipline can build that capability in a matter of months. JNIM demonstrated this. The implication for other non-state actors — in the Sahel, in coastal West Africa where JNIM’s operational reach is visibly expanding, and beyond — is that the playbook is now open-source. The tactics, the technology, and the organizational logic are all observable from public reporting. The only remaining variable is the will and the organizational coherence to implement them.

The foregoing is fairly straightforward, but – as the example of Ghulam shows – the door is wide open to major-state interference being a factor. Russia, Communist China, and even France (still smarting from its ejection from most of the Sahel region), are all possible sources for supplying training officers to JNIM. To be clear, there is no hard evidence of this as of writing, although the French cement company LaFarge is facing financing allegations. But – more direct foreign support to JNIM remains a potential factor.

JNIM currently controls or contests territory across Mali and Burkina Faso, with early indicators of an operational presence extending toward coastal West Africa — Ghana, Togo, Benin, Côte d’Ivoire. In each new operational area, the pattern repeats: grievance exploitation, governance provision, recruitment, instruction, attack. The school follows the army, because the school is the army. Understanding what it teaches is not an academic exercise. It is the precondition for countering it.

World War 3 isn’t being fought with nuclear weapons. It is being fought with simple tools, in regions of the world few people actually care about…unless they live there.

The Lion Roars To Life

Michael Cessna July 17, 2026

There is an old saying in the military sphere:

Beware the old man, in a profession where men die young.

On January 2, 2025, India’s Ministry of Defense quietly issued a Request for Information to domestic defense companies, asking for proposals on a very specific problem: 23mm proximity-fused ammunition capable of detonating near an enemy drone rather than requiring a direct hit. The weapon they wanted to upgrade was the ZU-23-2 — a Soviet twin-barreled anti-aircraft cannon that entered service in 1960, the same year John F. Kennedy was elected president. That a weapon designed to engage Korean War-era low-flying aircraft is now being fitted with twenty-first-century smart fuzes to hunt quadcopters over the India-Pakistan border is, depending on your perspective, either a testament to the original design’s enduring utility or a commentary on how thoroughly the drone threat has outrun the world’s ability to respond to it.

The reality is likely somewhere in between.

From Vietnam to the Technical

The ZU-23-2’s formal designation decodes itself: ZU for Zenitnaya Ustanovka — “anti-aircraft mount” — “23” for its caliber in millimeters, and “2” for the number of barrels. The KBP design bureau presented the prototype in 1955, refined it through the late 1950s, and the Soviet Army adopted it in 1960 as the standard towed light anti-aircraft weapon for Warsaw Pact forces. Its immediate predecessor in that role was the ZPU-2, which mounted twin 14.5mm KPV heavy machine guns — effective against very low and slow targets but outpaced by the jets that were becoming the dominant low-altitude threat by the late 1950s. The ZU-23-2’s twin 2A14 autocannons firing 23x152mm ammunition at a combined cyclic rate of up to 2,000 rounds per minute gave Soviet air defense batteries something capable of reaching targets at ranges out to 2,500 meters and altitudes up to 1,500 meters, with enough hitting power to be lethal rather than merely disruptive.

The Vietnam War gave the weapon its first major combat trial. From 1965 onward, the Soviet Union shipped ZU-23-2s to North Vietnam in quantity, and the gun became, alongside the 37mm M1939, the most commonly encountered anti-aircraft weapon in the theater. Given that approximately 83% of US Air Force losses over Vietnam came from ground fire rather than surface-to-air missiles or MiGs, the ZU-23-2 is conservatively credited with shooting down hundreds of aircraft — a combat record that no other weapon in this series can claim against modern fast jets in their first decade of service.

*ZU-23-2 firing. Vitebsk, Belarus. 2010 photo by Serge Serebro. **CCA/3.0 Unported**.*

What the Vietnam experience also revealed was a capability the Soviet designers had built in but perhaps underemphasized: the gun’s effectiveness against ground targets. At 2,000 meters, its armor-piercing incendiary rounds could defeat light armored vehicles. Against infantry and unprotected positions, it was devastating. Soviet forces in Afghanistan confirmed and extended this lesson, mounting ZU-23-2s in the beds of ZIL-135 trucks to provide convoy protection against ambushes in mountain terrain — using the gun’s high elevation arc to engage Mujahideen fighters on ridgelines that tank guns and BMP autocannons could not reach. After the Soviet withdrawal, both the Taliban and the Northern Alliance operated the weapons left behind. The pattern was establishing itself: wherever the ZU-23-2 went, it tended to stay, and whoever inherited it found new uses for it.

The technical — the improvised fighting vehicle built by mounting a weapon on a civilian truck — became the ZU-23-2’s most consequential platform adaptation. Lebanese militias in the civil war, Iraqi forces in 1991, Libyan factions in both of their civil wars, Sahelian insurgent groups including JNIM and its affiliates: all have mounted the gun on whatever truck was available and achieved a mobile fire support capability that costs a fraction of any purpose-built system. The weapon’s light weight — just over a ton in firing configuration — makes this straightforward. It can be set up for firing from the travel position in 30 seconds. It does not require specialized maintenance infrastructure. It fires ammunition that exists in virtually every post-Soviet conflict zone in quantities that border on inexhaustible. These are not small advantages.

*ZU-23-2 mounted on ZIL-157 truck at Muzeyon Heyl ha-Avir, Hatzerim airbase, Israel, 2006. Photo by Bukvoed. CCA/3.0 Unported.*

The Drone Problem and the Proximity Fuse Answer

For all of that, the ZU-23-2 spent the better part of its service life being quietly written off as obsolete for its nominal primary role. By the 1980s, jet aircraft were flying faster, higher, and with better electronic countermeasures than any optically-aimed 23mm gun could reliably engage. The ZSU-23-4 Shilka — the self-propelled, radar-guided development of the same 23mm caliber — had partially supplanted it in that role for Soviet forces, though even the Shilka was acknowledged as limited against fast-moving aircraft. The ZU-23-2 survived primarily because it was cheap, reliable, and effective against helicopters and slow aircraft — and because some 140,000 of them had been produced and distributed to something over fifty countries, which gives any weapons system remarkable institutional staying power regardless of its theoretical limitations.

The drone revolution has inverted that obsolescence logic almost completely. The primary aerial threat facing armies, militias, and non-state actors across Ukraine, the Sahel, Yemen, and the India-Pakistan border is no longer a fast jet flying at 600 knots. It is a commercial quadcopter or a fixed-wing FPV drone flying at 60 to 100 knots at low altitude, often in swarms, and costing between a few hundred and a few thousand dollars. Against that target class, the ZU-23-2’s engagement envelope — 2,500 meter range, 1,500 meter altitude ceiling, 2,000 rounds per minute combined — is not obsolete. It is, if anything, oversized for the job.

*ZU-23 mounted on a Ural-4320 cargo truck. 2019 photo by the Ministry of Defence of the Russian Federation, via Mil.ru. CCA/4.0 International.*

The remaining problem is probability of hit. A 23mm round fired at an FPV drone requires a near-direct hit to kill it. The drone is small, fast for its size, and maneuverable. Tracer-based manual aiming against such targets is demanding even for a well-trained crew. This is precisely the gap India’s January 2025 RFI was designed to close: proximity-fused 23mm ammunition that detonates within lethal radius of the target rather than requiring physical contact. The same concept drove the development of the original anti-aircraft proximity fuse in World War II — the VT fuze that transformed naval anti-aircraft gunnery against kamikazes — and its application to 23mm autocannon ammunition is technically straightforward given modern microelectronics. The payload is small; the fuze logic is well understood; the manufacturing challenge is miniaturization and cost, not physics.

India is not alone in recognizing this. Russia has deployed truck-mounted ZU-23-2 batteries in dedicated anti-drone mobile units in Ukraine since early 2024, pairing the guns with electronic warfare systems and smoke generators in combined teams designed to defeat FPV drone attacks. Russia has also developed and demonstrated a remotely operated variant, the ZU-23/30M1-3, with integrated electro-optical sighting — a concept first shown in 2013 that finally reached serious development attention under the pressure of the Ukraine war. Poland’s WB Group presented its ARM-28 electromechanical upgrade kit at the DEFEA 2025 defense exhibition in Athens, converting the ZU-23-2 into a semi-automated or remotely operated platform with digital drive motors, joystick control, and compatibility with external fire control systems. In May 2025, India’s own army air defense reported that ZU-23-2s alongside Bofors L/70 guns had been effective in shooting down multiple Pakistani drones during the India-Pakistan conflict — a real-world validation that arrived barely four months after the proximity fuse RFI was issued.

A Platform That Keeps Earning Its Place

The ZU-23-2’s spread across more than fifty national inventories and a substantial number of non-state arsenals means it occupies a peculiar position in the current global defense environment: it is simultaneously a museum piece and a front-line system, often in the same conflict zone. In Ukraine, Russian forces operate it as an improvised anti-drone gun. Ukrainian border guards have received new ZU-23-2 deliveries as recently as 2025. In the Sahel, JNIM-affiliated groups have truck-mounted examples that serve as the air defense component of a force that otherwise operates on motorbikes. In Yemen, Houthi forces have used them against Saudi coalition aircraft and, more recently, against drone threats.

What the proximity fuse development — in India, and likely elsewhere — signals is that the global community of ZU-23-2 operators has collectively decided the platform has a generation of useful life remaining, provided the ammunition catches up with the threat. The gun itself does not need to change. The carriage is sound, the barrels are replaceable, and the rate of fire is already more than adequate. What changes is the fuze in the nose of the round, and with it the probability that any given burst finds its target. A sixty-five-year-old Soviet anti-aircraft gun, fitted with a smart fuse developed for a threat that didn’t exist when the gun was designed, hunting Chinese-manufactured quadcopters over an Indian border post. The ZU-23-2’s designers at KBP in 1955 could not have anticipated any of that. The gun they built was flexible enough not to care.

The Mighty D-30 – A Tools of the Trade Joint

Michael Cessna June 26, 2026

Artillery is the King of the battlefield, and has been for nearly three hundred years.

Set up a D-30 howitzer and watch the crew work. The gun arrives towed muzzle-first behind a truck, trails folded flat. The crew unhitches it, lowers the central hydraulic jack — lifting the wheels clear of the ground — and swings the two outer trail legs outward, each through 120 degrees, until all three rest on the earth and are staked in place. The whole evolution takes under two minutes. The gun can now traverse through a full 360 degrees and engage a target in any direction without being repositioned. That is not a feature common to artillery; it is a feature specifically engineered into the D-30 by its designer, F.F. Petrov working at Plant No. 9 in Sverdlovsk, in the 1950s, and it remains one of the most practical innovations in postwar artillery design. Sixty-five years after the D-30 entered Soviet service, its three-legged silhouette is still appearing in drone footage from Ukraine, on both sides of the front line.

*Afghan National Army instructors fire the 122 milimeter D-30 howitzer, Oct. 4, 2010. U.S. Air Force photo by Senior Airman Zachary Wolf. Public Domain.*

A Caliber With a Long History

If nothing else, Russians love stability. They adopted the 7.62x54R rifle cartridge in the 1890’s…and still use it today. The D-30’s 122mm calibre did not arrive with the Cold War. Russia adopted that bore in the early twentieth century, and it became central to Soviet artillery doctrine through the Second World War, when the M-30 howitzer — also a Petrov design, also from Plant No. 9 in Sverdlovsk — served as the backbone of divisional artillery across every front from Barbarossa to Berlin. By the mid-1950’s the M-30 was aging and its limitations were apparent: a split-trail carriage that restricted traverse to just 49 degrees, a barrel too short for the ranges modern warfare demanded, and a weight that strained the logistics of rapid mechanized advance. Petrov’s bureau was tasked with replacing it, and the design that emerged kept the calibre and the ammunition commonality while discarding everything else about the M-30’s architecture.

The result was the 2A18, designated the D-30 in service. Where the M-30 had a conventional split-trail carriage limiting it to a narrow arc, the D-30 used a three-legged tripod arrangement that permitted the full-circle traverse. Where the M-30’s barrel was a stubby 22.7 calibres long, the D-30’s ran to 38 calibres, driving muzzle velocity and range substantially higher. The effective range with standard HE ammunition reached 15.4 kilometers; with modern rocket-assisted projectiles, 21.9 kilometers. Rate of fire peaked at ten to twelve rounds per minute, sustained at five to six. The crew required — commander plus seven, or in some configurations six — was manageable for a divisional artillery unit. The Soviet Army adopted it in 1960 and began exporting it to Warsaw Pact allies and client states shortly afterward.

*D-30 (2A-18) 122mm howitzer. 2007 photo by George Shuklin. CCA/1.0 Generic.*

The Three-Leg Trick and What it Means

The 360-degree traverse deserves more analytical attention than it usually receives, because it was not simply a convenience feature. Soviet doctrine for motorized rifle divisions expected artillery to operate in fast-moving, fluid engagements where the threat direction could change rapidly — including from armored vehicles breaking through to artillery positions. A conventional split-trail howitzer caught by an unexpected flanking attack has no practical recourse; the crew cannot swing it to bear in time. The D-30’s crew can. With its HEAT round, the D-30 can penetrate over 450mm of rolled homogeneous armor — sufficient to defeat any IFV and most tank side armor — and the all-round traverse means the gun is in effect a self-defending anti-tank weapon of last resort, capable of engaging targets in any direction without emplacement changes. The US Army’s own assessment noted that the D-30 was “fully suitable for antitank defense” and could be equipped with infrared or passive night sights for direct-fire engagements after dark.

*Drawing of BK 13 HEAT projectile used in D-30 gun-howitzers. 1997 drawing by J.H. Morgan and J. Pittman, United States Government. Public Domain.*

This dual-role capability — indirect fire howitzer and emergency anti-tank gun — was a deliberate Soviet design choice rooted in the expectation that artillery positions in a fast-moving European war might need to defend themselves. It added no meaningful weight or complexity. It cost nothing beyond the carriage design itself. It is, in retrospect, one of the more elegant solutions in Cold War artillery engineering.

The same barrel assembly went into the 2S1 Gvozdika self-propelled howitzer, which entered service in 1972 and gave motorized rifle regiments equipped with BMP infantry fighting vehicles a tracked, armored platform using the same ammunition as the towed D-30 batteries in the division behind them. The logistical coherence was intentional. Over 12,000 D-30s were produced across the Soviet period, with licensed or derivative manufacture in China, Egypt, Yugoslavia, Iran, and Iraq. It remains in production internationally and in service with more than 60 nations.

A Combat Record Spanning Decades

The D-30’s operational history reads like an atlas of post-1960 conflict. It fired in the Yom Kippur War of 1973, the Lebanese Civil War, the Soviet-Afghan War, the Iran-Iraq War — where both sides used it in the kind of grinding, WWI-adjacent attrition that consumed ammunition by the trainload — the Gulf War, the Yugoslav Wars, the Syrian Civil War, the recent Tigray War, and the ongoing conflict in Myanmar. No other postwar artillery piece has fired in as many distinct conflicts across as many continents. Its appearance in a conflict zone is almost a predictor of that zone’s geopolitical history: wherever the Soviet Union sold weapons and influence, the D-30 eventually followed.

Afghanistan was a particular proving ground. Soviet D-30 batteries engaged Mujahideen positions across mountain terrain that challenged every other piece in the divisional inventory. After the Soviet withdrawal, the gun remained with Afghan forces — and then with both the Afghan National Army and Taliban-adjacent formations — requiring US Army trainers to become proficient on it themselves in order to build Afghan artillery capacity. The JPEO Ammunition command was still procuring spare cannons, breeches, and fire control conversion kits for Afghan D-30s as recently as 2016.

Ukraine and the Drone Problem

The D-30’s presence in Ukraine is as a weapon on both sides of the line, which is itself a commentary on how thoroughly Soviet materiel saturated the world across the Cold War decades. Ukrainian forces inherited substantial D-30 stocks from the former Soviet military, and have supplemented them with captured Russian pieces. Russian forces continue to field them in motorized rifle formations alongside more modern systems, pulling them from storage reserves as attrition has consumed more capable equipment.

The drone age has been unkind to the D-30 in ways that go beyond mere vulnerability. A towed howitzer is by definition a slow-moving, visually distinctive platform that requires time to emplace and displace. On a battlefield where reconnaissance UAVs can locate a firing position within minutes of the first shot and direct a Lancet loitering munition or FPV drone onto it before the crew can limber up and move, the D-30’s greatest operational asset — its two-minute setup time — becomes a liability rather than an advantage. Ukrainian drone operators have documented and filmed the destruction of Russian D-30s throughout 2024 and into 2025, with Defense Express reporting confirmed drone strikes against the type in the Northern Slobozhanske direction as recently as late 2025.

The artillery doctrine Ukraine has developed in response to this environment emphasizes what analysts have called “shoot and scoot” discipline: fire a short mission, displace immediately, move before the counter-battery or drone response arrives. That discipline demands mobility. A D-30 towed by a Ural-4320 truck can reach 60 kilometers per hour on road and reposition within a few minutes of unlimbering — fast enough, if the crew is well-trained and the intelligence picture is managed carefully. Not fast enough, if it isn’t.

*Shot from the D-30 howitzer. Ministry of Defense of the Russian Federation, via mil.ru, 2021. CCA/4.0 Int’l.*

The D-30’s longevity is ultimately a product of the same qualities that have sustained every other piece of Soviet-era equipment in this series: rugged simplicity, ammunition commonality with a vast global stockpile, and a design architecture that asked nothing exotic of the armies operating it. The gun that Petrov’s bureau produced in Sverdlovsk in the 1950’s did not promise sophistication. It promised reliability, range, and the ability to swing in any direction and kill whatever came at it. In sixty-five years of continuous combat across six continents, it has largely delivered on that promise — and it is still being asked to do so.

The Immortal BMP

Michael Cessna June 19, 2026

On the morning of November 7, 1967, Western military attachés watching the annual Revolution Day parade roll across Red Square got their first look at something that had no equivalent in any NATO inventory. It was low, fast, amphibious, and bristling with weapons that no armored personnel carrier had any business carrying — a 73mm main gun and a rail-mounted anti-tank guided missile capable of killing a main battle tank at 3,000 meters. NATO scrambled to assign it a reporting name, settling on M-1967, because no one yet knew what the Soviets called it. What they called it was the BMP-1 — Boyevaya Mashina Pekhoty, or “fighting vehicle of the infantry”, in English — and its appearance in that parade triggered a reappraisal of mechanized warfare doctrine across the entire Western alliance that is still unfolding today.

A New Category Of Weapon

To understand why the BMP-1 caused the reaction it did, it is necessary to understand what came before it. The armored personnel carrier of the mid-1960s — the American M113, the Soviet BTR-60, and the British FV432 — was essentially a “battlefield taxi”. Its job was to move infantry to the edge of a fight, at which point the soldiers dismounted and the vehicle pulled back. The APC carried a machine gun for self-defense. It was armored against small arms and shell fragments. It was not expected to fight alongside tanks; it was expected to survive long enough to deliver its cargo and withdraw.

*BMP-1 vehicles belonging to the 152nd Mechanised Brigade, May 2024. Photo by 152 окрема єгерська бригада, Ukrainian Army. CCA/4.0*

The BMP-1 discarded that entire concept. It was designed from the outset as a fighting vehicle in its own right — a platform from which infantry could engage the enemy without dismounting, and which could itself engage tanks, bunkers, aircraft, and infantry through its own organic weapons. Every infantryman in the troop compartment had a firing port and a vision block. The vehicle carried an NBC over-pressure system allowing it to operate in a contaminated environment — a direct product of Soviet doctrine that treated tactical nuclear weapons as a normal feature of any future European war. The BMP-1 was not designed for the wars the West had been fighting. It was designed for the war Soviet planners expected to fight: a high-speed armored offensive across a nuclear-contaminated Central Europe, with infantry and tanks advancing together under the same protective shell.

*The firing arcs of the firing ports on the BMP-1 MICV. Image from a US Army TRADOC (“Training And Doctrine Command”) technical briefing, dated 30 June 1977. US Army image, 1977. Public Domain.*

In theory.

When Western analysts instantly grasped what they were looking at, the reaction was acute. There was no NATO equivalent. Only West Germany had been moving in a remotely similar direction with early development work that would eventually become the Marder, and even that was years from fielding. The consensus in 1967 was that the Soviet Union had stolen a significant doctrinal zone, and the Western responses — the M2 Bradley, the Marder, the British Warrior — would take fifteen years to reach the field. Overnight, the BMP-1 had created an entirely new category of weapon: the Infantry Fighting Vehicle, and it had created it alone.

The Gap Between Theory And Practice

The BMP-1’s combat debut came in the 1973 Yom Kippur War, where Egyptian and Syrian forces used it against Israeli armor. The results were sobering for Soviet doctrine. The 73mm 2A28 Grom gun proved inaccurate beyond 500 meters — less than a third of its theoretical effective range. The AT-3 Sagger anti-tank missile, mounted on a launch rail above the gun, could not be effectively guided from inside the cramped turret, requiring the operator to expose himself to do so. The vehicle’s aluminum-reinforced steel armor proved vulnerable to .50 caliber machine gun fire in the sides and rear, and to 106mm recoilless rifle rounds all around. In the heat of the Sinai, crews kept roof hatches open for ventilation, exposing them to fire from elevated positions. Soviet technical teams deployed to Syria in the war’s aftermath to gather data, and what they gathered was not encouraging.

*Four BMP-1s in Afghanistan. 2005 photo be “davric”. Public Domain.*

Afghanistan confirmed and extended those findings. Soviet BMP-1s operating in the mountainous terrain of the Hindu Kush encountered an enemy that understood their vulnerabilities precisely. Mujahideen fighters armed with RPG-7’s penetrated BMP-1 armor in approximately 95% of hits, frequently igniting the ammunition stored within the fighting compartment. Soviet soldiers — the people the vehicle was designed to protect — responded by riding on the outside of the hull rather than inside it, a damning commentary on the gap between the vehicle’s theoretical protection and its actual survivability. The BMP-1’s front-left seating arrangement, which placed the driver and commander in tandem alongside the engine, meant that a single mine blast or RPG hit could kill both simultaneously.

BMP-2 AND BMP-3: The Lessons Applied

Soviet engineers had begun drawing conclusions from the Yom Kippur data before Afghanistan confirmed them. Work on a successor vehicle began in 1974, and the BMP-2 entered service in 1980, reaching Afghanistan in time to serve alongside its predecessor. The changes were pointed. The Grom’s 73mm low-pressure gun was replaced by a 30mm 2A42 autocannon capable of engaging both infantry and light armor with high accuracy at ranges the original gun could never reliably achieve. The Sagger missile was replaced by the AT-4 Spigot and later the AT-5 Spandrel, with the launcher repositioned for better usability. The turret was redesigned to improve commander visibility. The gun’s elevation arc was extended sharply upward — a direct response to Afghan mountain fighting — allowing it to engage targets on high ground that the BMP-1 could not reach. The BMP-2 became and remains the most widely produced variant of the family, the backbone of Soviet and then Russian motorized rifle formations through the Cold War’s end and beyond.

*Slovak Republic BMP-2, during a live-fire exercise with US Army forces, 2015. US Army photo. Public Domain.*

The BMP-3, which entered limited Soviet service in 1987, represented a more radical departure. Rather than the graduated improvements of the BMP-2, the BMP-3 introduced an entirely new weapon package: a 100mm 2A70 gun capable of firing both conventional ammunition and laser-guided anti-tank missiles, combined with a coaxial 30mm 2A72 autocannon and three 7.62mm machine guns. The combination made it one of the most heavily armed infantry fighting vehicles in the world by firepower, though at a cost in complexity and production expense that limited its numbers. Russia entered the 2022 invasion of Ukraine with an estimated 400 to 750 active BMP-3s — a fraction of its BMP-2 holdings — supplemented by vehicles drawn from storage.

The Ukraine Reckoning

The BMP series has paid a severe price in Ukraine. By mid-2024, open-source tracking by Oryx had documented over 500 visually confirmed BMP-3 losses alone — a figure representing the destruction or capture of potentially the entire pre-war active fleet, with losses continuing to mount through 2025. BMP-1s and BMP-2s, operated by both sides, have been destroyed in numbers too large to track precisely. The vulnerability pattern is familiar: thin side and roof armor, ammunition in the fighting compartment, and no meaningful protection against the FPV drones that have become the dominant anti-vehicle weapon in the theater.

*Destroyed Russian BMP, near Kiev, Ukraine. 2022 photo by “Flamberge-Flamberge”. CCA/4.0 International.*

Russia’s response has been production and adaptation rather than replacement. Rostec confirmed a shipment of upgraded BMP-3s to the Russian Ministry of Defense in January 2026, claiming production running 40% above plan at 463 vehicles per year, with new builds incorporating ERA, improved belly protection against mines, electronic warfare systems, and upper-hemisphere armor responding directly to drone threats. A further development, the BMP-3M ‘Manul’, has been explicitly framed as a response to the US-supplied M2A2 Bradley and German Marder 1A3 IFVs fielded by Ukrainian forces — the same Western vehicles the BMP-1’s 1967 appearance first drove NATO to develop.

The wheel has come full circle in an ironic way. The vehicle that shocked NATO into creating the infantry fighting vehicle concept is now being redesigned to compete with the vehicles that NATO built in response to it. The BMP’s core idea — that infantry and armor should fight together rather than separately, that the carrier should itself be a weapons platform rather than a taxi — has proven more durable than any specific iteration of the vehicle embodying it. What changes with each generation is the answer to the same question the Soviet designers at the Chelyabinsk Tractor Plant were wrestling with in the early 1960s: how much protection is enough, and against what?

The BGM-71 TOW: A Tools of the Trade Joint

Michael Cessna June 12, 2026

On the morning of May 2, 1972, Chief Warrant Officer Carroll Lain made history without fully realizing it. Flying a UH-1B Huey over the Central Highlands of South Vietnam, he fired an experimental anti-tank missile at a North Vietnamese tank during the Easter Offensive and hit it. The weapon was the BGM-71 TOW — Tube-launched, Optically tracked, Wire-guided — pulled from storage barely three weeks earlier and rushed to the battlefield by a three-plane airlift. That first shot destroyed a captured American-built M41 tank. By the end of the day, four tanks, a truck, and an artillery piece were wrecked. The TOW had arrived. It has not left since.

TOW-armed AH-1S Cobra attack helpicopter of the US Army on the flight line, during Operation BRIGHT STAR ’85 (1985). Photo by US Army camerman SSGT David Nolan via US National Archives. Public Domain.

More than 700,000 BGM-71s have been produced in the fifty-five years since that morning, making it one of the most proliferated anti-tank guided missiles in history. It has been fired in anger from Vietnam to the Bekaa Valley, from the deserts of Iraq to the rubble of Syrian cities, and most recently across the steppes of Ukraine. No American anti-tank weapon has a longer unbroken combat record. That longevity is not accidental — it reflects a design architecture flexible enough to absorb five decades of warhead, guidance, and platform upgrades without requiring a fundamentally new missile — and it raises an uncomfortable question about whether a system conceived to kill Soviet armor in the Fulda Gap remains adequate for the battlefield that has emerged in the 2020s.

The Design Logic To Kill Tanks

Hughes Aircraft began development in 1963 in response to a US Army requirement for a heavy anti-tank guided weapon capable of defeating the Soviet armor then entering service. The design brief was demanding: the missile had to be effective from both ground mounts and helicopters, had to defeat contemporary Soviet tank armor at ranges out to 3,000 meters, and had to be accurate enough that a single gunner with a sight could guide it without specialized training in manual joystick control. The answer was SACLOS — semi-automatic command to line of sight — guidance. The gunner keeps the crosshairs on the target; the missile’s flight computer does the rest, reading the position of an infrared flare on the missile’s tail and transmitting corrections down the wire that spools out behind it in flight. Full-scale production began in 1968; the US Army fielded the system in 1970.

The wire itself is both the system’s defining characteristic and its principal tactical limitation. At its quoted maximum range of 3,750 meters, a TOW is in flight for roughly twelve seconds — twelve seconds during which the gunner must remain stationary, eye to sight, tracking the target while the missile guides itself toward it. In a suppressed or obscured environment, those twelve seconds are an eternity. The wire can be cut by terrain obstacles. The guidance link can be disrupted by smoke, dust, or electronic countermeasures. The launcher is a crew-served weapon weighing over 90 kilograms fully assembled, not something a single soldier moves quickly. These were known constraints from the beginning. The Army accepted them in exchange for a system that could reliably kill tanks at ranges beyond the effective reach of most direct-fire weapons available to infantry.

*A Stryker vehicle crew belonging to the 4th Brigade, 2nd Infantry Division, fires a TOW missile. Note the wires playing out of the missile in flight. 2009 photo by Victor J. Ayala. CCA/2.0 Generic.*

For the Marine Corps, the problem of the wire-guidance carries special problems. A TOW missile being fired over salt water – or even plain water – can cause a serious loss of control, potentially shorting out the guidance wires completely. Modern versions of the TOW have tried to correct this by ditching wire-guidance entirely in favor of wireless systems, but with only limited success to date.

Variants And The Arms Race With Soviet Armor

What distinguishes the TOW’s half-century run is the relentless pace at which its warhead evolved in direct response to Soviet armor improvements. The original BGM-71A delivered a simple shaped-charge warhead capable of penetrating around 430mm of rolled homogeneous armor (RHA) — sufficient for defeating the T-54 and early T-62. By 1981, the BGM-71C Improved TOW introduced a telescoping nose probe that detonated the warhead at standoff distance for optimum shaped-charge performance, pushing penetration toward 700mm of rolled homogenous armor. When the Soviet Union fielded explosive reactive armor on its tanks in the mid-1980s, the response was the BGM-71E TOW-2A in 1987, which added a small precursor charge in the nose probe to detonate the ERA block before the main warhead arrived.

The most conceptually significant variant came in 1992 with the BGM-71F TOW-2B. Rather than attacking a tank frontally — where armor is thickest — the 2B flies over the target at a preset height above the gunner’s line of sight, then fires two downward-aimed explosively formed penetrators through the thinner top armor of the turret when sensors detect the tank beneath it. The dual-mode fuze uses both a laser altimeter and a magnetic sensor to confirm the target. It is, in effect, a solution to the T-72’s carousel problem arrived at from a different angle than the Javelin‘s: instead of a steep plunging attack, the 2B attacks horizontally but shoots downward. The TOW-2B Aero extended the system’s range to 4,500 meters. A wireless radio-guided variant eliminated some of the wire constraint for platforms where wire deployment is impractical, but not in all cases.

The Modern Combat Record: From Desert Storm To Syria

Operation Desert Storm in 1991 was the TOW’s largest conventional combat deployment. Thousands of missiles and hundreds of launchers were fielded across the 82nd Airborne, 101st Airborne, and 24th Mechanized Division, mounted on HMMWV’s, M113 APC’s, LAV-TUA (TOW Under Armor), Bradley Fighting Vehicles, and AH-1 Cobra attack helicopters. Against Iraqi armor — largely T-55s and T-72s caught in the open desert without combined-arms support — the TOW performed precisely as designed.

Marines from the 2nd Marine Expeditionary Force show their LAV-AT light armored anti-tank vehicle to a group of coalition soldiers during the ground phase of Operation Desert Storm. USMC photo by LCpl Alvarado, 1991, via US National Archives. Public Domain.

Syria provided a different kind of test. Beginning around 2013, opposition groups supplied with TOW missiles through the CIA’s Timber Sycamore program used them extensively against the Assad regime’s armor in complex urban and semi-urban terrain. The results were filmed and posted widely, providing an open-source library of TOW engagements against T-55s, T-72s, and BMP infantry fighting vehicles in conditions far more demanding than open desert. The system’s performance under those conditions — engagements through rubble, across built-up areas, in the kind of cluttered visual environment that degrades optical tracking — validated that a trained two-man crew could operate it effectively even where the geometry was unfavorable. According to analysts tracking the conflict, probable thousands of Assad’s armored vehicles and fortified positions were struck by TOW missiles over the course of the civil war.

In Ukraine, TOW missiles arrived as part of US security assistance packages in 2023 and again in December 2024, mounted primarily on Bradley IFVs already in Ukrainian service. The Bradley-TOW combination proved effective against Russian armor in the same conditions that have degraded every other armored system in the theater: FPV drone surveillance, mined terrain, and the absence of reliable air cover. The wire-guidance limitation becomes less significant when the system is vehicle-mounted with a stabilized sight and the engagement range is dictated by available cover rather than the missile’s maximum reach.

The Wire’s Limits In The Drone Age

The twelve-second exposure problem that was a known constraint in 1970 looks different in 2026. On a battlefield saturated with FPV drones capable of striking a static position within seconds of detection, a crew operating a tripod-mounted TOW launcher is vulnerable in ways that the original design brief never contemplated. The system’s requirement for the gunner to remain stationary and exposed throughout the flight time is a survival liability that vehicle mounting partially mitigates, but does not eliminate. Wire-cutting by terrain obstacles remains a failure mode, though it is manageable in trained hands.

Raytheon, which acquired Hughes in 1997 and has manufactured TOW missiles ever since, has stated its production line can produce up to 10,000 missiles annually and has active contracts with the US Army for fiscal years 2023 and 2024 valued at hundreds of millions of dollars. The US military has designated the TOW as remaining in service through at least the mid-2030s. Over 40 allied nations operate it. That institutional momentum is substantial — the logistics chain, the training base, the platform integration across dozens of vehicle types — and it represents a form of staying power that purely technical analysis tends to underweight.

A wire guided Tube Launched Optically (TOW) sighted Missile ejects a plume of flame as it is fired from its High-Mobility Multipurpose Wheeled Vehicle (HMMWV), by Marines from the TOW Platoon, Weapons Company, Third Battalion, Second Marine Regiment, during Combined Arms Exercise (CAX) 5-97, Twentynine Palms, CA. 1997 photo by LCPL E. J. Young, USMC. Public Domain.

The TOW is not the most capable anti-tank missile available in 2026. The Javelin’s fire-and-forget capability and top-attack profile represent a genuine generational advance, and the proliferation of loitering munitions has created new options for armor defeat that do not require a gunner to hold a sight on a target for twelve seconds. What the TOW retains is exactly what it has always offered: good range, a proven warhead capable of defeating any tank currently in service in its TOW-2B configuration, a platform-agnostic launcher compatible with vehicles and helicopters from three dozen countries, and a production base that can be scaled up. Carroll Lain’s first shot in 1972 was a proof of concept. Half a century of continuous upgrades turned that proof of concept into one of the most durable weapons systems the United States has ever fielded.

The Little Missile That Could – A Tools of the Trade Joint

Michael Cessna May 1, 2026

In this series, we have looked at many weapons that refused to die, weapons that conquered the world through simplicity, and weapons that failed their operators despite genuine technological ambition. This week, we look at something rarer: a weapon whose single most important moment in combat history changed the entire Western understanding of armored warfare overnight – and whose descendants are still being sold on the world market today. The Soviet 9M14 Malyutka – “Little One” in Russian, designated “AT-3 Sagger” by NATO – is not a weapon many casual readers will recognize by name. But its fingerprints are on nearly every anti-armor doctrine written since 1973, every advanced armor development, and every ATGM guidance improvement that followed its debut on the banks of the Suez Canal in October 1973.

The Weapon

Development of the Malyutka began in July 1961, when the Soviet government assigned competing design teams at the Tula and Kolomna arsenals to produce the USSR’s first man-portable anti-tank guided missile. The design brief drew on Western systems of the 1950s – the French Entac and Swiss/West German Cobra – but the Soviets pushed for a smaller, more portable package optimized for infantry carry. The result entered service in 1963: an eleven kilogram missile that fits into a fiberglass suitcase that functions as a base for the missile’s launch rail, guided by a joystick an wire control system, using Manual Command to Line of Sight (MCLOS) guidance.

*The periscopic sight and joystick control unit for the Soviet Sagger AT-3 anti-tank guided weapon (ATGW) system. 1984 image from US National Archives. Public Domain.*

*AT-3 Sagger/9K11 Malyutka ATGM in its fiberglass carrying case. US Army photo. Public Domain.*

MCLOS guidance is exactly what it sounds like. The operator acquires the target, launches the missile, and then manually steers it to impact by watching a flare on the missile’s tail and manipulating a joystick that sends correction signals down a wire unspooling behind the missile in flight. It demands genuine skill, steady nerves, and an operator who can remain stationary and focused while a tank crew actively attempts to kill him. Soviet production peaked at 25,000 missiles per year during the 1960s and 1970s, making it almost certainly the most widely produced anti-tank guided missile in history. Exports went to over 45 nations, from Afghanistan and Algeria to Vietnam and Zimbabwe.

The weapon could be carried by a single infantryman, fired from the ground using a simple suitcase-style launcher, or mounted on vehicles including the BRDM reconnaissance vehicle and the BMP infantry fighting vehicle. Maximum effective range was 3,000 meters – considerably beyond the effective range of any unguided rocket reviewed so far in this series. The basic warhead penetrated more than 400mm of rolled homogeneous armor. On paper, for its time, it was a genuine tank killer.

*9M14 Malyutka anti-tank missile on BMP-1 APC, at the Army History Museum and Park in Kecel, Hungary. 2005 photo by WikiUser: VargaA. CCA/4.0 Int’l.*

October 1973: The Sagger Panic

On October 6, 1973 – Yom Kippur, the holiest day of the Jewish calendar – Egyptian forces crossed the Suez Canal in a coordinated assault that caught the Israeli Defense Forces badly off-balance. What followed in the first 48 to 72 hours was one of the most shocking reverses in Israeli military history, and the Malyutka was at the center of it.

Egyptian infantry crossed with Malyutka teams carrying three times the normal missile load. They deployed in static firing positions along the eastern bank and waited for Israeli armor – specifically the tank-heavy Israeli counterattack doctrine that had worked so devastatingly in the Six Day War of 1967. The Israeli tank crews – victims of “Victory Disease” – helpfully obliged, charging forward without infantry support in the manner that had defeated Arab armies six years earlier.

The Malyutka teams were ready.

The results were catastrophic. In the first days of the war, Egyptian Sagger teams knocked out Israeli armor at a rate that generated genuine panic in Israeli command structures. In total, Sagger’s knocked out more than 800 Israeli tanks and other combat vehicles during the war. A period known simply as the “Sagger Panic” set in, during which the future of the main battle tank as a concept was openly questioned – by NATO planners as much as by the Israelis themselves. If Egyptian infantry with Soviet missiles could kill Israeli Centurions and M60 Patton tanks at will, what would Soviet infantry equipped with the same missiles do to NATO armor in Central Europe?

*Israeli M-60 main battle tank, destroyed during fighting in the Sinai Peninsula, 1973. Photo from””Military Battles on the Egyptian Front” by Gammal Hammad. Public Domain.*

The answer the Israelis eventually developed was both tactical and improvised. Artillery concentration on suspected Sagger operator positions – suppressing the men rather than intercepting the missiles – proved effective. Tank crews learned to advance aggressively toward launch signatures rather than halt and present stationary targets. Firing rounds in front of the tank to generate dust clouds disrupted operator visibility. Moving laterally while the missile was in flight, exploiting the MCLOS system’s requirement for continuous operator correction, helped to cause misses. These Israeli adaptations were subsequently adopted wholesale by NATO as standard ATGM countermeasure doctrine. The “Little One” had, in six days of combat, restructured how the Western alliance thought about tanks, infantry, and the relationship between them.

*An Israeli soldier with a Sagger anti-tank rocket. 1974 photo by Israel Press and Photo Agency (I.P.P.A.) photographer. CCA/4.0 Int’l.*

The Weapon’s Limitations – And Its Evolution

The same combat record that demonstrated the Malyutka’s shock effect also revealed its constraints. MCLOS guidance demanded a level of operator training and composure that mass-fielded infantry forces could not reliably produce. Combat hit probabilities for MCLOS variants have been documented at approximately 25% under real conditions – effective enough in the hands of well-trained Egyptian teams in prepared positions, but far less reliable in dynamic, fast-moving and violent combat. The minimum engagement range of 500-800 meters forced operators into exposed forward positions. And the slow missile speed – averaging a mere 120 meters per second – gave alert tank crews meaningful reaction time if they spotted the launch.

Soviet designers addressed these limitations progressively. The 9M14M Malyutka-M, entering service in 1973, improved the motor to reduce flight time. The 9M14-2 Malyutka-2, entering service in 1992, replaced MCLOS with SACLOS – Semi-Automatic Command to Line of Sight – guidance, the same improvement that distinguished the Dragon II from its predecessor, dramatically reducing operator skill and workload management requirements. The 9M14-2M added a tandem HEAT warhead for use against reactive armor. Serbian engineers at VTI developed the Malyutka-2T with a 1,000mm penetration tandem warhead and a radio-guided variant with a range of 5 kilometers and a speed of 200 meters per second – a very different weapon from the 1963 original in almost every parameter except the basic airframe.

China produced its own unlicensed derivative, the HJ-73 Red Arrow, in multiple improved variants. Iran produces the RAAD-T – itself a reverse-engineered copy, supplied to Hezbollah and various militia forces and documented in conflicts across the Middle East and Yemen.

Still In The Field

The Malyutka family has appeared in virtually every significant ground conflict since 1973: the Iran-Iraq War, Grenada, the Gulf War, both Chechen Wars, Libya, Syria, Iraq, and Ukraine, on both sides. Free Libyan Army rebels were filmed using Saggers in 2011. Syrian opposition forces uploaded Sagger firing videos from 2012 onward. Current confirmed operators include Morocco, Saudi Arabia, Thailand, Syria, Iran, and a range of non-state actors who have acquired the weapon through the vast quantities exported during the Cold War.

*Map with 9M14 operators in blue and former operators in red. 2015 image by WikiUser: Jurryaany. CCA/4.0 Int’l.*

The weapon that crossed the Suez Canal in a suitcase in 1973 is still on the world’s battlefields in 2025 – modernized, copied, improved, and proliferated to an extent that makes any meaningful accounting of current stocks essentially impossible. That is the definition of a weapon that solved a real problem, in a way that the world found impossible to stop buying.

The Dragon was America’s answer to the same requirement at roughly the same time. The Malyutka was the Soviet answer. One of them changed the world. The other is remembered primarily for its 20% hit rate and the relief that the Javelin finally arrived.