1–87 of 87
Analyst Note:
The Iranian 358 surface-to-air missile is reportedly a ‘loitering munition’, designed for engaging drones and rotary-wing aircraft. It employs a combination of ground-based and onboard thermal cameras to scan a designated area, and then uses an infrared imaging seeker in the nose to locate and lock onto targets. The missile carries a 10 kg fragmentation warhead, which is functioned by a 360-degree laser proximity sensor. (ARES)
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)
Analyst Note:
This sheet-metal body component is marked with a manufacturer’s CAGE Code (“MFR-59518”) which indicates it was produced by GlenDee Corp. of Moorpark, California, which does business as Metalagraphics, Inc. (MGI). (ARES)
Analyst Note:
Moog Inc.—headquartered in East Aurora, New York, as marked on this munitions remnant—describes itself as a “worldwide designer, manufacturer, and integrator of precision control components and systems”. Moog supplies actuator and control components to the prime contractor on the Miniature Air-Launched Decoy (MALD) programme, Raytheon. (ARES)
Analyst Note:
This munition remnant is marked with a manufacturer’s CAGE Code (“MFR-57413”) which indicates it was produced by the Maine Machine Products Company, a sub-contractor on the GMLRS contract. (ARES)
Analyst Note:
This image shows the three lenses that form the new version of the Kh-101 Digital Scene Matching Area Correlator (DSMAC) system. (The older version only had a single lens.) DSMAC systems take digital images of the ground as the missile passes overhead, and then compare those images to pre-captured images stored in the onboard memory. The DSMAC corrects the flight path as needed based on differences between the two sets of images. (ARES)
Analyst Note:
This image shows a close up view of an actuator assembly from an AGM-114 ‘Hellfire’ series missile. This assembly is what actuates the control fins, and the attachment point for one of the control fins is visible at the bottom right of the image. This assembly belongs to the control section, which is the rearmost section of the missile. (ARES)
Analyst Note:
This image shows the top of the booster of an Arrow 3 interceptor missile, where it connects to the kill vehicle. The Arrow 3 was jointly developed by the United States and Israel, and first entered service in 2017. The date of manufacture marking (“DATE OF MFG: 05/2018”) indicates that this booster was produced in the year after the Arrow 3 first entered service. (ARES)
Analyst Note:
The Commercial and Government Entity (CAGE) code marked on this data plate (“0S9G9”) is a now-obsolete code assigned to Israel Aerospace Industries (IAI), the manufacturer of the Mikholit air-delivered bomb. (ARES)
Analyst Note:
This image shows a Mikholit glide bomb, with its warhead removed (green cylinder on the left side of the box). The fins that spring outward when deploye have been taped down. This Mikholit was reportedly recovered by the Israeli Defense Forces (IDF) from Hamas, who had captured the bomb after it failed to function when originally deployed by the IDF. (ARES)
Analyst Note:
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)
Analyst Note:
This image shows a fragment of an Israeli 120 mm tank gun projectile, with its distinctive obturating band configuration. The additional remnants shown in the related OSMP entry permit distinguishing this projectile from other potential Israeli models, identifying it as the M339 tank gun projectile. (ARES)
Analyst Note:
This image shows the section just forward of the Tamir missile’s forward fins and appears to incorporate the base of the active radar seeker (open end) and the laser proximity sensor part of the warhead fuzing system (mirrors/glass & opening in the casing). While the Tamir has been reported to physically impact some targets, the proximity fuze is designed to closely pass by the target, then detonate the high explosive fragmentation warhead thereby destroying the target. ‘Tamir’ is a Hebrew acronym for Til Meyaret, or ‘interceptor missile’. (ARES)
Analyst Note:
Pictured is the Stunner’s dual electro-optical/infrared nose sensors which, while in flight, identify and avoid decoys; identify the target; and guides the kinetic warhead on the final phase of its journey into the target. The sensors are housed in the unique ‘dolphin head’-shape of the missile, featuring a clear tip. The electro-optical sensor acquires the target during daylight operations, while the infrared sensor acquires the target in low-light conditions. The ground-based Battle Management and Control (BMC) system identifies the target’s flight path, calculates the point of interception, and transmits this information to the Stunner by encrypted datalink. The missiles utilise a vertical launch system to allow for a complete 360° response area. (ARES)
Analyst Note:
This image shows the rear of the second stage of the penetrator warhead (also called a ‘follow-through’ warhead) of the Bomb Royal Ordnance Augmented Charge (BROACH) multi-stage warhead system present in the Storm Shadow/SCALP-EG missile. The cylindrical object in the centre of the warhead (with a data plate marked “THALES”) is the fuze. (ARES)
Analyst Note:
This image shows the nosecone from an Israeli Tamir surface-to-air missile. This component is often found as a remnant after the functioning of the missile. (ARES)
