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Unguided Munition
Munitions incapable of altering their flight path once fired, instead following a relatively predictable trajectory (typically a ballistic trajectory). Unguided munitions are generally less precise, and cheaper, than guided alternatives.
OSMP2271
Analyst Note:
This image shows a PTM-3 scatterable anti-vehicle mine, surrounded by the remnants of an unmanned aerial vehicle (UAV). Russia has been dispensing PTM-3 mines from one-way attack UAVs as they fly towards their primary target. Typically, these OWA UAVs are fitted with KPTM-3 remote mining canisters mounted under the wings, which eject their PTM-3 payload midair. The PTM-3’s fuze features an arming delay which is sufficient to allow the mine to fall to the ground before fully activating. (ARES)
OSMP2217
Analyst Note:
This image shows an Iranian ballistic missile’s ‘manoeuvrable re-entry vehicle’ (MaRV; a detachable, steerable payload section) at the IRGC Aerospace Museum in Tehran, with what appear to be inert models of the submunitions Iran has deployed against Israel in the recent conflict. ARES has assigned a temporary identification of TMID-0012 to these submunitions. (ARES)
OSMP2456
Analyst Note:
This image shows two anti-vehicle mines produced by Iran, known variously as the ’YM3’, ‘YM-III’, or similar. According to the manufacturer, mass production began in 2002. The mine reportedly has an overall weight of 6.9 kg (15 lb). (ARES)
OSMP2455
Analyst Note:
This image shows an Iranian M18A1 anti-personnel landmine, an Iranian copy of the American M18A1 ‘Claymore’ design. Iran has produced their own copy of the M18A1 since at least 2004. According to Iranian sources, it contains 600 spherical, steel pre-formed fragments that are 6 mm in diameter. These mines are designed to propel these steel balls in an arc forward of the munition upon detonation. (ARES)
OSMP2328
Analyst Note:
From early 2026, rockets marked “KP-M-112mm” began appearing in media reports from Syria. The manufacturer and country of origin of these is not yet known. Visually, these munitions closely resemble the Chinese Type 63 family of rockets (which includes the Iranian FAJR 1, often seen in Syria). However, the markings indicate an apparent 112 mm diameter, which is larger than the 107 mm of the Type 63 family. There are other, minor differences in construction that are externally visible. (ARES)
OSMP1908
Analyst Note:
The PF69-40 HEI warhead contains approximately 900 pieces of spherical steel fragmentation (‘ball bearings’) as well as 2,000–3,000 incendiary pellets that scatter over a 15 m radius on detonation. (ARES)
OSMP1910
Analyst Note:
The items highlighted in this image are Vietnamese 70 mm B40 recoilless gun projectiles. The B40 HE is an anti-personnel munition that is fired from the Vietnamese B40 recoilless gun, a copy of the Soviet RPG-2. (ARES)
OSMP1752
Analyst Note:
Based on design features and an estimation of the munition’s apparent size relative to the personnel handling it, this image appears to show a 122 mm surface-to-surface rocket fitted with a high explosive fragmentation (HE-FRAG) warhead, although the specific model and country of origin are unclear. In Sudan there have been reports of Russian, Chinese, and domestically produced (Taka-02) 122 mm rockets being used. (ARES)
OSMP2284
Analyst Note:
This image shows a U.S. Area Denial Artillery Munition (ADAM), an anti-personnel scatterable landmine which is dispensed from the rear of M692 and M731 155 mm artillery gun projectiles. Each projectile contains 36 ADAM submunitions. The submunition can deploy up to seven tripwires out to 20 ft (6.1 m). Any movement of a tripwire or movement of the ADAM body will result in a small kill mechanism being ejected to a height of a 6–8 ft (1.8 m–2.4 m) prior to detonating. Each munition contains a small amount of depleted uranium. The ADAM was previously designated as either the M67 or M72, with the only difference being the self-destruct time delay. (ARES)
OSMP2283
Analyst Note:
The German DM 1399 (AT2) anti-tank landmine shown here can be dispensed from rockets and ground vehicles. Upon being dispensed, a small parachute is deployed in order to slow the mine’s descent and assist in in landing base down; the parachute is released upon impact by an impact-release connector. Upon impact, from five to 12 (six shown) spring-loaded, metal legs deploy to right the mine; arming is completed anywhere from 15 seconds to five minutes thereafter. The base of the cylindrical body houses the battery and electronics assembly, with the main explosive charge and Misnay–Schardin shaped charge plate immediately above. The body is topped by a dome cover and an S3 sensor wire which extends approximately 600 mm (12 in) above the body of the mine. (ARES)
OSMP2282
Analyst Note:
This image shows a German DM 1399 (AT2) dispensed anti-tank (anti-vehicle) landmine. This munition uses a shaped charge that relies on the Misnay–Schardin effect to penetrate the underside of armoured fighting vehicles. The DM 1399 reportedly has magnetic and pressure fuzing, along with an anti-disturbance feature and a self-destruct time delay of up to four days, settable in six different increments. The mines can be dispensed from rockets (MLRS), vehicles (Skorpion 2), and UAVs (Eggbox with 4 mines). Currently the mines are known to be in service with Finland, Germany, Norway, the United Kingdom, and Ukraine (having been donated by Germany). Denmark, Latvia, and Sweden are in the process of having AT2+ mines and Skorpion 2 systems delivered. (ARES)
OSMP2211
Analyst Note:
This image shows the ‘manoeuvrable re-entry vehicle’ (MaRV; a detachable, steerable payload section) of an Iranian ballistic missile loaded with submunitions. It appears there are three different models of submunition loaded into the MaRV (black, blue, and red). The black and blue submunitions are most likely anti-personnel designs, whilst the red submunitions (indicated by a red box) are likely designed with penetrating or shaped-charge warheads to target vehicles or structures. Some submunitions may utilise time-delay fuzing, allowing for random detonations over several hours or days to hamper clearance efforts, denying use of the afflicted area. Reports have shown Iran has used ballistic missiles with mixed submunition loads, and suggest that this type of warhead can scatter its payload up to a radius of 8 km. (ARES)
OSMP2302
Analyst Note:
The BLU-91/B pictured here is an aerially dispensed anti-vehicle scatterable landmine that uses a magnetic-influence fuze to function a shaped charge relying on the Misnay–Schardin Effect. The munition is fitted with three self-destruct delay settings. The aeroballistic adaptor is commonly broken off upon impact and the remnants of the adhesive holding it in place can be seen (yellow). One side of the munition has a bore-riding pin which is held in place while in the dispenser. Once dispensed, the bore riding pin is released and starts the arming process. The BLU-91/B is 121 mm (4.75 in) in diameter and 56 mm (2.6 in) in height. (ARES)
OSMP2276
Analyst Note:
Highlighted is a Russian POM-2 scatterable mine, a bounding, high explosive, anti-personnel munition. Upon impact, the POM-2 deploys six legs for stabilisation and four pressure- and pull-sensitive tripwires of 9.5 m (31.17 ft) in length. These terminate in a ‘Y’-shaped fashion with plastic weights. Upon release, nylon stabiliser ribbons are deployed to help ensure the submunition lands upright, working in conjunction with the stabilising legs. These can be seen in the foreground of this image. Originally designed to be dispensed by rockets, helicopters, and fixed wing aircraft, the war in Ukraine has seen the POM-2 modified for deployment via UAV. (ARES)
OSMP2275
Analyst Note:
This image depicts a Russian PFM-1 or PFM-1S submunition. These are small anti-personnel scatterable landmines constructed using a plastic (low-density polythene) body and a liquid high explosive fill. They are fitted with a pressure fuze, and may be green, white, sand (tan), or brown (as seen here) in colour. The PFM-1S incorporates a nominal self-destruct with a delay of approximately 40 hours, although they may remain active for far longer and are known to randomly self-destruct weeks after deployment. They weigh approximately 70 g (2.47 oz) and are typically dispensed from 250 kg (551 lb) and 500 kg (1,102 lb) class dispensers by the hundreds. The war in Ukraine has seen them dispensed from UAVs. (ARES)
OSMP1837
Analyst Note:
Considered with additional contextual materials, it is assessed that this image shows the rocket motor section from a 122 mm incendiary rocket, specifically the 9M22S or 9M28S models. Both rockets carry the same warhead, but use rocket motors of different lengths; not enough of this motor is visible to positively identify the model. (ARES)
OSMP1835
Analyst Note:
This image shows a stepped component positioned at the front of the warheads carried by 122mm 9M22S and 9M28S incendiary rockets. This structure helps to push the ML-5 incendiary elements out of the rear of warhead once the fuze in the nose functions. It is a relatively distinctive component, and commonly found in the vicinity of where the incendiary elements fall. (ARES)
OSMP2037
Analyst Note:
This image shows an unexploded Iranian submunition of unknown designation. Visually similar examples have been documented following Iranian ballistic missile strikes on Israel in June 2025 and March 2026. At least two variants are believed to exist, but publicly available details remain limited at time of review. (ARES)
OSMP1792
Analyst Note:
This image shows 122 mm high explosive (HE) artillery gun projectiles manufactured in three different states, L–R: Iran, North Korea, and Russia. Whilst these examples are distinct from one another—particularly in coloration, as well as the presence or absence of paint over the driving band and bourrelet—this is not always the case, and a combination of physical features and markings should be assessed before identification is made. (ARES)
OSMP1801
Analyst Note:
Pictured here are a pair of 106 mm M344A1 High Explosive Anti-Tank (HEAT) projectiles fitted with M509A1 point-initiating, base-detonating (PIBD) fuzes. These are designed to be fired from M40-series 106 mm recoilless rifles. Note that, despite the nominal 106 mm designations, the M40 has a bore diameter of 105 mm. (ARES)
OSMP1803
Analyst Note:
This munition, despite being adapated from the design of a 120 mm mortar projectile and closely resembling such, is actually a small air-delivered bomb intended to be dropped by UAV. The manufacturer clearly states that the munition should not be fired from a mortar. Additional data from the manufacturer states that it uses a UT M18 “special impact fuze”. (ARES)
OSMP1828
Analyst Note:
This image shows a North Korean 170 mm artillery projectile, as fired by the M-1978 Koksan self-propelled artillery gun. Very little is known of the M-1978 Koksan due to the secretive nature of North Korean arms development, but both high explosive and rocket-assisted high explosive projectiles are believed to be available. The designations ‘M-1978’ and ‘Koksan’ were applied by American military analysts identified the system in Koksan, North Korea, in 1978. (ARES)