The external organisation that documented the munition
Research Organisation (6)
Colour of the munition pictured
Base Colour (12)
Colour of all, or some, of the markings on the munition
Marking Colour (11)
Language or script of the marking on a munition
Marking Script (10)
Condition of the munition pictured
Condition (6)
Key features defining the operation mechanisms of a projectile
Mechanical Feature (10)
Whether a munition is guided or unguided
Guidance (2)
Where the munition is launched from and what it targets
Domain (7)
The type of fins visible on the munition
Fins Characteristic (6)
The nominal diameter of a projectile. For most modern munitions, this is expressed in millimetres (e.g. 82 mm mortar projectile), but older artillery gun projectiles may be described in inches.
Carrier munitions which contain and dispense submunitions (smaller munitions, sometimes called ‘'bomblets’'). Cluster munitions generally scatter their payload over a wide area, either to increase hit probability or for area-denial purposes. They can take the form of multiple munition categories. Some submunitions - especially older models, or those stored or employed incorrectly - can have a high dud rate, resulting in an enduring explosive hazard. More than 100 states have signed an international convention banning the use of cluster munitions - but not Russia, the United States, China, or Israel.
Current Filter
Fragmentation Munition
Fragmentation munitions use the detonation of an explosive to propel small fragments of material (‘fragmentation’) from the body of the munition at high velocity. A fragmentation munition typically affects a wider area than a simple blast munition of the same size, and is effective against personnel and unarmoured vehicles. Fragmentation is the primary mechanism of lethality for many common explosive munitions, but these munitions almost invariably also affect their environment through blast and other mechanisms (e.g., a high explosive fragmentation munition).
Current Filter
Ukraine
A large eastern European country that faced a full-scale Russian invasion in February 2022. Since then the Ukrainian military has fought a major war with Russian forces, with tens of thousands believed to have been killed.
This image shows the second warhead present in some variants of the Kh-101 cruise missile. The inclusion of this additional warhead requires a smaller fuel tank in the missile, offering increased explosive weight in exchange for a reduced maximum range. (ARES)
This image shows a Russian spherical submunition of unknown designation. Whilst this specific example was delivered by a cluster munition variant of the Kh-59MK2 missile, this submunition is known to also be delivered by variants of the Kh-69. A similar, but different, spherical submunition is delivered by some variants of the Kh-101. (ARES)
This image shows part of a Russian Kh-59MK2 missile that is fitted with a cluster munition warhead. Some of the grey spherical submunitions are visible, both inside and outside the warhead. (ARES)
The munition in this image has been integrated into a commercial off-the-shelf (COTS) small UAV. This UAV (‘drone’) adds powered and guided delivery and converts the munition into a guided missile—regardless of the original, intended delivery method. (ARES)
The warhead of the OWA UAV indicated in this image cannot be positively identified from this photograph alone. It appears to be the warhead section of either an OG-9 series or OG-15 series high explosive fragmentation (HE-FRAG) projectile, with a GO-2 or similar impact fuze fitted in the nose. (ARES)
This image shows three different warheads developed by Russia for the Shahed-136/Geran-2 one-way attack (OWA) unmanned aerial vehicle (UAV), each of which differ from the original warhead designed by Iran for the Shahed-136. Left: A thermobaric explosive warhead; Middle: TBBCh-50M, a thermobaric explosive warhead; Right: OFZBCh-50, a high explosive warhead with an incendiary effect. Each of these warheads is also fitted with a fragmentation liner to increase the fragmentation effect generated when the warhead detonates. Some of the fragmentation liners may contain zirconium, a metal which is ignited when the warhead detonates, providing an additional incendiary effect. (ARES)
This image shows the copper cone of the shaped charge located at the front of the warhead fitted to a Shahed-131. The Ukrainian armed forces have recorded that the cone measures 111 mm in diameter and 162 mm in depth. The warhead is lined with cubic pre-formed fragments of 7 mm in diameter. The explosive content of the warhead is estimated to be between 10 and 15 kg. (ARES)
This image shows a remnant of the aft motor section, which includes the venturi nozzle, of a North Korean KN-23/KN-24/Hwasong-11 series missile. The KN-23/KN-24/Hwasong-11 has a generally similar appearance to the Russian 9M7 ‘Iskander’ series of ballistic missiles, but has differences in performance and in some aspects of the construction. (ARES)
This image shows the BSF-50, one of several warheads developed by Russia for the Shahed-136/Geran-2 to replace the original Shahed-136 warhead designed by Iran. The BSF-50 is a high explosive warhead with a fragmentation effect. (ARES)
Two R-77 air-to-air missiles (NATO reporting name: AA-12 Adder) are carried in this photograph by a Russian Aerospace Forces Sukhoi Su-35 fighter aircraft. Key markings, including the aircraft’s bort number (a coloured numeral that acts as a unit or base identifier), have been digitally obscured. (ARES)
The Armement Air-Sol Modulaire (AASM; ‘Modular Air-to-Ground Armament’) family of French bolt-on guidance kits are fitted to air-delivered bombs of various sizes in a similar fashion to American JDAM kits. In some marketing materials, the acronym HAMMER is used, standing for ‘Highly Agile Modular Munition Extended Range’. This refers, in part, to the rocket boosters fitted to munitions in the family to extend their effective range. (ARES)
In this photo, a Ukrainian Sukhoi Su-25 ground-attack aircraft from the 299th Tactical Aviation Brigade, with the bort number ‘Blue 28’, is seen carrying an AASM-250 guided air-delivered bomb under its left wing. Available imagery shows that the AASM-250 has also been fitted to Mikoyan MiG-29 fighter aircraft, and can likely be carried by the Sukhoi Su-27 as well. (ARES)
This image shows a North Korean 120 mm high explosive (HE) mortar projectile next to an Iranian 120 mm HE mortar projectile. Despite both being the same calibre, the overall shapes and dimensions of the two projectiles are noticeably different. Factors such as payload weight and range can be affected significantly by projectile shape. (ARES)
This image shows one of several possible warhead variants that can be carried by the Shahed-136/Geran-2 one-way attack (OWA) UAV. The Shahed-136/Geran-2 (and the smaller Shahed-131/Geran-1) has been documented carrying shaped-charge warheads, penetrator warheads, and multi-function warheads. Due to the various warheads that can be carried by a Shahed/Geran drone, the functional use cannot be determined without the warhead being visible. In this case, the munition was fitted with a TBBCh-50M warhead that contains a thermobaric explosive composition with an additional fragmentation effect. (ARES)
Shahed-131/Geran-1 and Shahed-136/Geran-2 one-way-attack (OWA) UAVs can be fitted with on of a variety of warheads with different functional uses. The specific type carried by each UAV cannot be determined unless the munition has been damaged in such a way as to reveal the warhead, such as in this case. This image shows the cone of the shaped charge, indicating that this Shahed-1/Geran-1 carries a warhead with a penetrating or anti-armour effect. This warhead has been documented with 18 additional liners for enhanced anti-armour effect, and in some cases has been fitted with fragmentation liners for an enhanced anti-personnel effect. (ARES)