Monthly Archives: March 2016

F-15E / Advanced F-15 (2040c) / F-15X Eagle

The Boeing F-15E dual-role fighter is an advanced long-range interdiction fighter and tactical aircraft. The F-15E is the latest version of the Eagle, a Mach 2.5-class twin-engine fighter. More than 1,500 F-15s are in service worldwide with the US Air Force, US Air National Guard and the air forces of Israel, Japan and Saudi Arabia, including over 220 F-15E fighters.

F-15 Strike Eagle programme and development

The F-15E made its first flight in 1986. It is armed with air-to-air missiles that can be launched from beyond visual range, and has air-to-ground capability to penetrate hostile air and ground defences to deliver up to 24,000lb of precision ordnance. Since 2001, US Air Force F-15E aircraft have been almost exclusively used for close-air support.


In April 2001, Boeing received a contract for a further ten F-15E aircraft for the USAF, bringing the total to 227. The air force initially planned to purchase 392 F-15s. The first production model of the F-15E was delivered to the 405th Tactical Training Wing, Luke Air Force Base, Arizona, in April 1988. The ‘Strike Eagle’, as it was dubbed, received initial operational capability on 30 September 1989.

Boeing is upgrading the programmable armament control set and software for the delivery of precision weapons like the joint direct attack munition (JDAM), joint stand-off weapon (JSOW) and the wind-corrected munition dispenser (WCMD).

Joint direct attack munition (JDAM)

Joint direct attack munition (JDAM)

Joint stand-off weapon (JSOW)

Joint stand-off weapon (JSOW)

The AGM-154A (Formerly Advanced Interdiction Weapon System) is intended to provide a low cost, highly lethal glide weapon with a standoff capability. JSOW family of kinematically efficient, air-to-surface glide weapons, in the 1,000-lb class, provides standoff capabilities from 15 nautical miles (low altitude launch) to 40 nautical miles (high altitude launch). The JSOW will be used against a variety of land and sea targets and will operate from ranges outside enemy point defenses. The JSOW is a launch and leave weapon that employs a tightly coupled Global Positioning System (GPS)/Inertial Navigation System (INS), and is capable of day/night and adverse weather operations.

The JSOW uses inertial and global positioning system for midcourse navigation and imaging infra-red and datalink for terminal homing. The JSOW is just over 13 feet in length and weighs between 1000-1500 pounds. Extra flexibility has been engineered into the AGM-154A by its modular design, which allows several different submunitions, unitary warheads, or non-lethal payloads to be carried. The JSOW will be delivered in three variants, each of which uses a common air vehicle, or truck, while substituting various payloads.

AGM-154A (Baseline JSOW) The warhead of the AGM-154A consists of 145 BLU-97/B submunitions. Each bomblet is designed for multi-target in one payload. The bomblets have a shaped charge for armor defeat capability, a fragmenting case for material destruction, and a zirconium ring for incendiary effects.

AGM-154B (Anti-Armor) The warhead for the AGM-154B is the BLU-108/B from the Air Force’s Sensor Fuzed Weapon (SFW) program. The JSOW will carry six BLU-108/B submunitions. Each submunition releases four projectiles (total of 24 per weapons) that use infrared sensors to detect targets. Upon detection, the projectile detonates, creating an explosively formed, shaped charge capable of penetrating reinforced armor targets.

AGM-154C (Unitary Variant) The AGM-154C will use a combination of an Imaging Infrared (IIR) terminal seeker and a two-way data link to achieve point target accuracy through aimpoint refinement and man-in-the-loop guidance. The AGM-154C will carry the BLU-111/B variant of the MK-82, 500- pound general purpose bomb, equipped with the FMU-152 Joint Programmable Fuze (JPF) and is designed to attack point targets. Source

Wind-corrected munition dispenser (WCMD)

Wind-corrected munition dispenser (WCMD)

The aircraft also have improved night vision capability and three new active-matrix liquid crystal displays.

In December 2005, the Government of Singapore placed an order for 12 F-15SG aircraft. Deliveries are scheduled for mid-2009 to 2012. In October 2007, Singapore ordered an additional 12 aircraft. The first F-15SG was rolled out in November 2008. Deliveries of F-15SGs are to begin in second quarter 2009 and continue till 2012.

In August 2008, the F-15E became the first fighter to fly powered by a blend of synthetic fuel and JP-8. The USAF intends to certify its entire fleet of aircraft for flight using the blended fuel by 2011.

F-15SE Silent Eagle stealth variant

In March 2009, Boeing unveiled the F-15 Silent Eagle (F-15SE) at St Louis, Missouri, USA.

“The F-15 Silent Eagle is designed to meet our international customers’ anticipated need for cost-effective stealth technologies, as well as for large and diverse weapons payloads,” said Boeing F-15 programme vice president, Mark Bass.

Using a modular design approach, the F-15SE possesses aerodynamic, avionic, and stealth features. Key elements of the F-15SE include aerodynamic improvements, RCS reductions, an internal weapons bay and advanced avionics enhancements.

Aerodynamic changes to the F-15SE will improve the aircraft’s aerodynamic efficiency and fighter performance by reducing overall airframe weight and drag. The RCS reduction methods are applied to the airframe for frontal aspect stealth capability thus improving mission effectiveness.

The modular internal weapons bay contributes to the overall aircraft RCS reduction package while maintaining strike capability. The enhanced avionics include an integrated active electronically scanned array (AESA) radar and digital electronic warfare system (DEWS) that provides the pilot with greater situational awareness.

The internal carriage conformal fuel tanks (CFTs) can be quickly replaced by the large payload external carriage CFTs which are optimised for increased weapons load. The innovative Silent Eagle is a balanced, affordable design solution based on the combat-proven F-15 Eagle.

The new sophisticated F-15SE internal carriage capability minimises aircraft radar signature and significantly increases pilot tactical options. It is equipped with two internal bays designed for multiple carriage configurations.

The F-15SE is capable of carrying electronic warfare, reconnaissance equipment, side-looking radar, and jamming equipment. The fighter plane’s reconfigurable capability provides enhanced combat flexibility. It is adaptable with each application reconfigurable every 30 minutes.

The elite F-15SE signature reduction methods are applied to the airframe for frontal aspect stealth capability, which ensure greater survivability in the battlefield. The F-15 family has a combat record of 101 victories and zero losses. The US Air Force’s F-15E has flown thousands of combat missions during worldwide combat operations.

F-15SE Silent Eagle: Details


F-15K Slam Eagle next-generation South Korean fighter

In April 2002, the Republic of Korea chose the F-15K as its next-generation fighter. 40 aircraft, to be known as the ‘Slam Eagle’, have been ordered. The first flight of the F-15K took place in March 2005 and deliveries began in October 2005. The F-15K entered operational service in July 2008 and deliveries concluded in October 2008. It was confirmed in April 2008 that 21 more would be ordered in 2010, the quantity includes an additional aircraft to replace one which crashed in 2006.

The South Korean Air Force received the last shipment of new F-15K fighter in October 2008 completing its decade-long project to procure 40 of the highly manoeuvrable aircraft. US aircraft manufacturer Boeing delivered F-15ks to the South Korea’s 11th Fighter Wing in Daegu.

The F-15K is powered by General Electric F110-GE-129 engines and features a new electronic warfare suite including BAE Systems IEWS ALR-56C(V)1 radar warner, BAE Systems IDS ALE-47 countermeasures dispenser system and Northrop Grumman ALQ-135M radar jammer.

Lockheed Martin will provide the Tiger Eyes sensor suite with targeting pod (mid-wave staring array FLIR, laser and CCD TV), navigation pod (terrain following radar and mid-wave staring array FLIR) and long-range IRST (infrared search and track). Raytheon will supply the AN/APG-63(V)1 multi-mode radar. BAE Systems will provide the AN/APX-113 IFF (identification friend or foe) system. Data Link Solutions will supply the MIDS fighter datalink.

Kaiser Electronics will provide the cockpit display suite including: five flat panel colour displays (FPCD), four 6in multi-purpose displays (MPD) and wide field of view head-up display (HUD). The FCPD and MFD feature active matrix liquid crystal display (AMLCD) technology.

ROKAF F-15, @Boeing

The Republic of Korea has ordered Raytheon AIM-120 AMRAAM and AIM-9X Sidewinder air-to-air missiles and Boeing SLAM-ER stand-off land attack missiles for the new aircraft. First flight of a SLAM-ER, which has a range of 278km (150nm), onboard an F-15E took place in February 2004. In 2010, the Republic of Korea Air Force also plans to procure AGM-158 joint air-to-surface stand-off missiles (JASSM).

See details of F-15K: HERE

Boeing is pitching the U.S. Air Force a new F-15 fighter jet

Details of the F-15X That Boeing is Pitching the US Air Force


While F-15A/C aircraft are single-crew aircraft, F-15B/D/E have a crew of two. The F-15E is crewed by the pilot and the weapon systems officer (WSO).

The WSO is equipped with two Sperry full-color and two Kaiser single-color cathode ray tubes. The WSO can access information from the radar, electronic warfare or infrared sensors, and monitor aircraft or weapons status and possible threats. The WSO also selects targets and navigates with the aid of a moving map display, produced by an AlliedSignal remote film strip reader.

screenshot15.jpgPilot WSO @eaglet.skr.jppilot_throttle_handpilot_stick_hand

The pilot’s crew station features one full-colour and two single-colour cathode ray tubes. These are being upgraded to Rockwell Collins 5in Flat Panel Colour Displays using active matrix liquid crystal display (AMLCD) technology. A holographic wide-field-of-view head-up display (HUD) from Kaiser provides the pilot with flight and tactical information.

F-15E HUD (Kaiser IR-2394/A)

5a7b1c1dd3c6c4c227d2617ca1aa9c8fKaiser HUD

The F-15E HUD (Kaiser IR-2394/A) is much greater than the HUD in previous F-15 models (A, B, C, D), thus letting the system display more information. It provides a 21° x 28° field of view. Note that although the HUD glass is more or less rectangular, the limits of the maximal projected area are rounded (see photo above left), thus no image can be projected to the very edges of the HUD. Symbology projected to the HUD appear in green, its appearance can be controlled by the pilot, using the HUD controls under the UFC (Up-Front Controller). HUD symbology is projected as if ‘focused at infinity’, thus letting the pilot see the symbology sharply while actually looking at objects far in front of the aircraft. Source

HUD controls

The HUD control rack is located inthe middle of the pilot’s dashboard, right below the UFC. The rack contains all the control switches and knobs necessary for managing the appearance of the HUD symbology. Note that this rack houses the master mode selector buttons as well, which too have effect on the informaton displayed on the HUD. The following picture illustrates the layout of the HUD control switches and knobs and their functions are exlained in detail below.


Brightness Knob controls the brightness of the stroke symbology. Note that due to its nature, stroke symbology is always displayed at a ‘maximum contrast setting’.

Symbol Declutter Switch serves as a declutter switch for the HUD. When set to ‘NORM’, all stroke symbology appears on the HUD. When set to ‘REJ1’ or ‘REJ2’ some or all of the stroke symbology is removed from the HUD. Note that the pilot can program which symbology should be removed and which should remain in any of these settings. Brightness Knob #1 and Symbol Declutter Switch together are labeled as ‘SYM’, since they control the appearance of stroke symbology on the HUD.

Day/Night/Auto Switch sets the HUD display mode. When set to ‘DAY’, HUD symbology illumination goes to max power so information displayed on the HUD should be visible even in bright daylight. When set to ‘NIGHT’, symbology illumination is low, but still clearly visible against the dark sky. When set to ‘AUTO’, symbology illumination varies depending on ambient lighting. Note that oddly enough, in ‘AUTO’ mode, the HUD does not provide enough illumination in the dark.

BIT Button and BIT Indicator are used during maintenance when the HUD’s built-in test function should be engaged.

Video Brightness Knob controls the brightness of the raster (video) symbology.

Contrast Knob controls the contrast of the raster symbology. Video Brightness Knob and Contrast Knob together are labeled as ‘VID’, since they control the appearance of video imagery on the HUD.



The F-15 Eagle is equipped with this version of the ACES II. It replaced an Escapac seat used in the prototypes and early aircraft. This version differs from the rest of the basic side-pull ACES II seats (A-10, F-117) in the configuration of the headrest canopy breakers, and the side-pull handles. The picture below shows the size difference between the handles on the A-10 (right) and the F-15 (left). The A-10 seats originally had no canopy breakers as in the example shown, but were later fit with a single canopy breaker. The F-117 has a metal canopy frame which precludes the use of a canopy breaker. The handles on the F-117 closely resemble the A-10 handles. Source

F-15 Eagle Losses & Ejections: Here


Joint helmet-mounted cueing system (JHMCS)

USAF F-15 pilot wth joint helmet-mounted cueing system (JHMCS)

USAF F-15s are scheduled to receive the joint helmet-mounted cueing system (JHMCS) developed by Vision Systems International. A contract for 145 systems was placed in July 2008. Deliveries are underway and are scheduled to conclude in mid-2009.



The F-15E aircraft can carry payloads up to 23,000lb. The aircraft can carry up to four Lockheed Martin / Raytheon AIM-9LM infrared-guided Sidewinder air-to-air missiles, up to four Raytheon AIM-7F/M radar-guided Sparrow air-to-air missiles, or eight Raytheon AMRAAM radar-guided, medium-range air-to-air missiles.

AIM-9LM infrared-guided Sidewinder

The AIM-9L added a more powerful solid-propellant rocket motor as well as tracking maneuvering ability. Improvements in heat sensor and control systems have provided the AIM-9L missile with an all-aspect attack capability and improved guidance characteristics. The L model was the first Sidewinder with the ability to attack from all angles, including head-on. An improved active optical fuze increased the missile’s lethality and resistance to electronic countermeasures. A conical scan seeker increased seeker sensitivity and improved tracking stability. The AIM-9L is configured with an annular blast fragmentation warhead. Production and delivery of the AIM-9L began in 1976.

The AIM-9M missile utilizes a guidance control section with counter-countermeasures and improved maintainability and producibility. The AIM-9M is configured with an annular blast fragmentation warhead. Currently the only operational variant, has the all-aspect capability of the L model, but provides all-around higher performance. The M model has improved defense against infrared countermeasures, enhanced background discrimination capability, and a reduced-smoke rocket motor. These modifications increase ability to locate and lock-on a target and decrease the missile’s chances for detection. Deliveries of the M model began in 1983. Source

AIM-7 Sparrow


The AIM-7 Sparrow is a radar-guided, air-to-air missile with a high-explosive warhead. The versatile Sparrow has all-weather, all-altitude operational capability and can attack high-performance aircraft and missiles from any direction. The AIM/RIM-7 series is a semiactive, air-to-air, boost-glide missile, designed to be either rail or ejection launched. Semiactive, continuous wave, homing radar, and hydraulically-operated control surfaces direct and stabilize the missile on a proportional navigational course to the target. Propulsion for the missile is provided by a solid propellant rocket motor.


The missile has five major sections: radome, radar guidance system, warhead, flight control (autopilot plus hydraulic control system), and solid-propellant rocket motor. It has a cylindrical body with four wings at mid-body and four tail fins. Although external dimensions of the Sparrow remained relatively unchanged from model to model, the internal components of newer missiles represent major improvements with vastly increased capabilities. Sparrow is a supersonic, medium range, aerial-intercept missile, which guides on RF energy. The missile processes radar signals received directly from the launch platform’s radar via its rear signal receiver, and also processes RF energy reflected from the target received by its own internal radar receiver (front signal). Sparrow is controlled in flight by four movable delta platform wings. Missile stability is provided by four fixed delta fins which are located in line with the forward wings. Missile propulsion is provided by a dual-thrust, solid propellant rocket motor. An active RF fuze detonates the warhead when the missile is within lethal range of the target. To increase performance in either application, air-to-air or surface-to-air, Sparrow contains switching circuits that automatically program missile operation for optimum performance in the appropriate environment. The Sparrow Weapon System consists of the radar-guided missile; the support equipment consisting of test, handling, and training equipment, tools and reusable containers; and the aircraft or ship’s equipment required to launch the missile.



The AIM-7F joined the Air Force inventory in 1976 as the primary medium-range, air-to-air missile for the F-15 Eagle. The AIM-7F was an almost completely new missile, gaining ability from improved avionics that allowed the warhead to be moved to the front, allowing a bigger motor to be carried that has improved range.



The AIM-7M, the only current operational version, entered service in 1982. It has improved reliability and performance over earlier models at low altitudes and in electronic countermeasures environments. It also has a significantly more lethal warhead. The latest software version of the AIM-7M is the H-Build, which has been produced since 1987 and incorporates additional improvements in guidance. AIM/RIM-7M DT and OT was successfully completed in FY82. The F-15 Eagle and F-16 Fighting Falcon fighters carry the AIM-7M Sparrow. Source

AIM-120 AMRAAM Slammer

The AIM-120 advanced medium-range air-to-air missile (AMRAAM) is a new generation air-to-air missile. It has an all-weather, beyond-visual-range capability and is scheduled to be operational beyond 2000. AMRAAM is a supersonic, air launched, aerial intercept, guided missile employing active radar target tracking, proportional navigation guidance, and active Radio Frequency (RF) target detection. It employs active, semi-active, and inertial navigational methods of guidance to provide an autonomous launch and leave capability against single and multiple targets in all environments.

The AMRAAM weighs 340 pounds and uses an advanced solid-fuel rocket motor to achieve a speed of Mach 4 and a range in excess of 30 miles. In long-range engagements AMRAAM heads for the target using inertial guidance and receives updated target information via data link from the launch aircraft. It transitions to a self-guiding terminal mode when the target is within range of its own monopulse radar set. The AIM-120 also has a “home-on-jam” guidance mode to counter electronic jamming. With its sophisticated avionics, high closing speed, and excellent end-game maneuverability, chances of escape from AMRAAM are minimal. Upon intercept an active-radar proximity fuze detonates the 40-pound high-explosive warhead to destroy the target. At closer ranges AMRAAM guides itself all the way using its own radar, freeing the launch aircraft to engage other targets.



Presently, there are three series of AMRAAM: AIM-120A, AIM-120B, and AIM-120C.

AIM-120A.  First production AIM-120A, delivered by Hughes in 1988 to the 33d TFW at Eglin AFB, Florida.

AIM-120B and AIM-120C versions are currently in production, the latter with smaller control surfaces to permit increased internal carriage capability in the F-22. AIM-120B deliveries began in FY 94, and AIM-120C deliveries began in FY 96.

P3I.  An improvement program seeks to develop AMRAAM capabilities, including software reprogrammability, advanced counter-countermeasures, and options for improved propulsion.

The AIM-120A is a non-reprogrammable missile (requires a hardware change to upgrade the missile software). The AIM-120B/C is reprogrammable through the missile umbilical using Common Field-level Memory Reprogramming Equipment (CFMRE). The AIM-120C has smaller aerosurfaces to enable internal carriage on the Air Force F-22 aircraft. The USAF All-Up-Round (AUR) container houses an internal cable which enables up to four missiles to be reprogrammed while in the container. USN containers are not equipped with the cable and must be opened to reprogram the missile. All three AMRAAM variants are currently approved for use on the F-15C/D/E, F-16C/D, and F/A-18C/D aircraft. Source


A US Air Force (USAF) F-15E Strike Eagle dual-role fighter aircraft prepares to aerial refuel while flying a combat mission over Iraq (IRQ) during Operation IRAQI FREEDOM.

Ranges for these missiles are: Sidewinder: 8km; Sparrow: 45km; and AMRAAM: 50km.

The range of air-to-ground ordnance includes guided GBU-10, -12, -15 and -24 bombs, and Raytheon AGM-65 Maverick infrared-guided missiles. Maverick’s range is 25km.

GBU-10, -12, -15 bombs

GBU-24 bombs

Raytheon AGM-65 Maverick

The first units of GBU-15 glide bomb upgraded with Global Positioning System (GPS) guidance have been delivered for deployment on the F-15E. The Joint Direct Attack Munition (JDAM) was cleared for carriage on the F-15E in February 2005. The aircraft will also be able to carry the Lockheed Martin AGM-158 joint air-to-aurface stand-off missile.

GBU-15 glide bomb

AGM-158 Joint Air to Surface Standoff Missile (JASSM)


JASSM is a precision cruise missile designed for launch from outside area defenses to kill hard, medium-hardened, soft, and area type targets. The threshold integration aircraft are the F-16, B-52, and F/A-18 E/F, and the airframe design is compatible with all JASSM launch platforms: the B-52H, F-16C/D, F/A-18E/F, F-15E, F-117, B-1B, B-2, P-3C and S-3B. The weapon is required to attack both fixed and relocatable targets at ranges beyond enemy air defenses. After launch, it will be able to fly autonomously over a low-level, circuitous route to the area of a target, where an autonomous terminal guidance system will guide the missile in for a direct hit. The key performance parameters for the system are Missile Mission Effectiveness, range, and carrier operability.

JASSM’s midcourse guidance is provided by a Global Positioning System (GPS)-aided inertial navigation system (INS) protected by a new high, anti-jam GPS null steering antenna system. In the terminal phase, JASSM is guided by an imaging infrared seeker and a general pattern match-autonomous target recognition system that provides aimpoint detection, tracking and strike. It also offers growth potential for different warheads and seekers, and for extended range. Source

The F-15E is the first aircraft to be armed with the Boeing GBU-39 GPS-guided 113kg (250lb) small diameter bomb. Up to 12 bombs can be carried. The SDB entered Low-Rate Initial Production (LRIP) in April 2005 and achieved Initial Operating Capability (IOC) on the F-15E in September 2006.

Boeing GBU-39 GPS-guided 113kg (250lb) small diameter bomb

The Laser Small Diameter Bomb (Laser SDB) system is the next generation of affordable and low-collateral-damage precision strike weapons, which builds on the success of the same Semi-active Laser (SAL) sensor currently used by Boeing’s Laser JDAM.  A Laser SDB increases mission effectiveness in several ways:

By using already-proven laser sensor technology, Laser SDB offers the flexibility to prosecute targets of opportunity, including moving targets. With the BRU-61 Carriage System, these optimized munitions offer increased load-out for each weapons station to prosecute multiple targets per sortie. As a 250-lb. class weapon, Laser SDB’s smaller size and High Performance Wing Assembly allow it to glide for extended ranges.

Besides providing a safer standoff distance for pilots at greater than 60 nautical miles, Laser SDB target coordinates can be updated after weapon release by illuminating the target with standard Laser designation procedures. Laser SDB also retains a smaller warhead that provides reduced collateral damage, and offers ultra-low fragmentation with the composite focused lethality munition (FLM) variant. Source

GBU-39/B Weapon:

•  Dimensions: (L x W): 70.8″ x 7.5″ (1.8 m x 19 cm)
•  Weapon Weight: 285 pounds (130 kg)
•  Warhead: 206 lb. (93 kg) penetrating blast fragmentation
•  Warhead penetration: >3 feet of steel reinforced concrete
•  Fuze: electronic safe/arm fuze
•  Standoff maximum range: more than 60 nautical miles
•  Precision inertial navigation system/GPS
•  Anti-jam GPS and selective-ability anti-spoofing module

BRU-61/A Carriage System:

•  Payload capacity: four weapons
•  Weight: 320 pounds (145 kg) empty, 1,460 pounds (664 kg) loaded
•  Dimensions (L x W x H): 143″ x 16″ x 16″ (3.6 m x 40.6 cm x 40.6 cm)
•  Fits nearly all delivery platforms

Raytheon awarded contract for upgrades to Small Diameter Bomb

An F-15E fighter aircraft, pictured, can carry seven groups of four SDB II bombs, for a total of 28 weapons. Photo courtesy of Raytheon

Sept. 28 (UPI) — Raytheon has been awarded a $450 million contract for engineering changes and development of the Small Diameter Bomb II, an update for the U.S. Air Force.

The contract, announced Wednesday by the Department of Defense, is for design, development, integration, test and production engineering for changes to the SDB.

Work will be performed in Tucson, Ariz., and is expected to be finished by Aug. 31, 2024. No funds have been obligated yet for the award, which was the result of a sole-source acquisition.

The SDB II is capable of three modes — a millimeter wave radar that detects and tracks targets through all weather, imaging infrared for improved target discrimination, and a semi-active laser allowing it to track lasers in the air or on the ground.

The bomb can strike targets more than 45 miles away and has a small size, so more of them can be carried by fewer aircraft.

The SDB II is being integrated for use on the F-35 and F/A-18E/F by the U.S. Air Force and Navy, and Raytheon is expected to have it prepared for integration with the F-15E by the end of the year. Source


Raytheon, the U.S. Air Force and U.S. Navy have begun SDB II™ bomb integration activities on the F-35, F/A-18E/F and F-15E aircraft.

The seeker works in three modes to provide maximum operational flexibility: millimeter wave radar to detect and track targets through weather, imaging infrared for enhanced target discrimination and semi-active laser that enables the weapon to track an airborne laser designator or one on the ground.

This powerful, integrated seeker seamlessly shares targeting information among all three modes, enabling the weapon to engage fixed or moving targets at any time of day and in all-weather conditions. The SDB II bomb’s tri-mode seeker can also peer through battlefield dust and debris, giving the warfighter a capability that’s unaffected by conditions on the ground or in the air.

The weapon can fly more than 45 miles to strike mobile targets, reducing the amount of time that aircrews’ spend in harm’s way. Its small size enables the use of fewer aircraft to take out the same number of targets as previous, larger weapons that required multiple jets. The SDB II bomb’s size has broader implications for the warfighter and taxpayers, as it means fewer attacks with less time spent flying dangerous missions.

The U.S. Air Force and U.S. Navy have begun SDB II bomb integration activities on the F-35 Joint Strike Fighter and the F/A-18E/F Super Hornet aircraft. Raytheon will complete integration on the F-15E Strike Eagle in 2017. Source:

The aircraft is also armed with an internal General Dynamics M-61A1 20mm Gatling gun installed in the right wing root, which can fire 4,000 or 6,000 shots a minute.

M-61A1 20mm Gatling gun

The M61 20mm Vulcan is an externally powered, six-barrel, rotary-fire gun having a rate of fire of up to 7200 spm. The firing rate is selectible at 4,000 spm or 6,000 spm. The gun fires standard electrically primed 20mm ammunition. The M61A1 is hydraulically or ram-air driven, electrically controlled, and uses a linkless ammunition feed system.

Each of the gun’s six barrels fires only once during each revolution of the barrel cluster. The six rotating barrels contribute to long weapon life by minimizing barrel erosion and heat generation. The gun’s rate of fire, essentially 100 rounds per second, gives the pilot a shot density that will enable a “kill” when fired in one-second bursts.

M-61A1 20mm Gatling gun on F-15C

The M61 20mm cannon is a proven gun, having been the US military’s close-in weapon of choice dating back to the 1950s. The F-104, F-105, later models of the F-106, F-111, F-4, B-58, all used the M61, as does the Air Force’s F-15 , F-16 and F-22, and the Navy’s F-14 and F/A-18. The internally mounted 20mm cannon system is common to all versions of the F-15. This system combines the widely used (F-4, F-16, F-18) M61 cannon with 940 rounds (A through D models) or 500 rounds (E model) of ammunition. The cannon can be loaded with target practice, armor piercing, or high explosive incendiary rounds. The primary use of the cannon is in the extremely short range (less than 2000 feet) air-to-air environment, where more sophistacated air-to-air missiles are ineffective. Alternately, the cannon has limited usefulness in a ground strafing role. Source

Boeing Touts New 16 Air-To-Air Missile Carrying F-15 Eagle Configurations Advanced F-15 (2040c / X)


According to Boeing artwork floating around the net, this includes the activation of the number one and number nine weapon stations on the outer wings, or possibly by hefting a multiple ejector rack capable of carrying a pair of AIM-120 AMRAAMs on the Strike Eagle’s conformal fuel tanks. It’s speculated that some modifications have been made to the Eagle’s existing conformal fuel tank design to make this possible. Additionally, a new pylon for the Eagle’s standard wing hardpoints capable of carrying four missiles instead of two looks to be a key part of the concept.

Boeing F-15X

Like the F-15 Silent Eagle concept and its various sub-options that have yet to find any buyers, this new Eagle offering may not be exclusive to new-build aircraft alone and could be able to be applied to various Eagle variants to varying degrees, depending on the operator’s needs. Conformal fuel tanks can even be fitted to existing F-15C/Ds, so this type of modification may not be limited to the F-15 Strike Eagle series alone.

Boeing F-15X

F-15SA (Saudi Advanced): Details

ca-dec-6-pic-2-1024x682F-15SA – Image: Combat Aircraft

See details of F-22 Raptor: HERE

The Talon HATE pod


See details of Talon HATE pod: HERE


The integrated avionics systems provide all-weather, around-the-clock navigation and targeting capability. The Raytheon APG-70 synthetic aperture radar displays high-quality images of ground targets. APG-70 is able to create and freeze the high-resolution ground maps during quick sweeps of the target area, lasting only seconds.

Upgraded Raytheon APG-63(V)3 (AESA) radar


USAF F-15Es are being fitted with the upgraded Raytheon APG-63(V)3 Active Electronically Scanned Array (AESA) radar which has a new transmitter, receiver, data processor and signal data converter. The first was delivered to Boeing for flight tests in September 2006.

F-15E demonstrates new display system: Here


APG-82(V)1 AESA radar



Delivering next-generation capabilities

The APG-82(V)1 AESA radar is the latest radar advancement for the U.S. Air Force F-15E fleet.


The APG-82(V)1 optimizes the F-15Es multirole mission capability. In addition to its extended range and improved multi-target track and precision engagement capabilities, the APG-82(V)1 offers improvement in system reliability over the legacy F-15E APG-70 radar. This phenomenal level of reliability and maintainability will result in significant maintenance cost savings for the U.S. Air Force.


By leveraging combat-proven technologies—the APG-79 and APG-63(V)3 AESA radars flying on the F/A-18E/F, the EA-18G and the F-15C platforms—Raytheon delivers a low-risk, cost-effective and superior situational awareness and attack radar to modernize the Strike Eagle.


Aircraft equipped with the APG-82(V)1 AESA radar can simultaneously detect, identify and track multiple air and surface targets at longer ranges than ever before. The longer standoff range facilitates persistent target observation and information sharing for informed decision making. This superior battlespace awareness supports greater tactical mission capability. The result: greatly increased aircraft-aircrew effectiveness and survivability.


Raytheon’s ground-breaking AESA technology has consistently proven its exceptional performance, reliability and mission capabilities for the warfighter. Our APG-79 AESA radar design, now extended to the APG-82(V)1, is combat-proven on fielded F/A-18s, and it’s being adapted now to modernize the Strike Eagle.



“The new radar system does everything faster, is extremely precise and requires less maintenance,” Riley said. “It can designate air-to-air and air-to-ground simultaneously, allowing us to track enemy aircraft and identify ground targets at the same time.”

According to the Air Force’s first RMP report, the new radar system is designed to retain functionality of the old legacy radar system while providing expanded mission employment capabilities to include:

– Near simultaneous interleaving of selected air-to-air and air-to-ground functions
– Enhanced air-to-air and air-to-ground classified combat identification capabilities
– Longer range air-to-air target detection and enhanced track capabilities
– Longer range and higher resolution air-to-ground radar mapping
– Improved ground moving target track capability

“In order to maintain our combat edge in today’s challenging environment, Air Combat Command must balance resources between refurbishing our existing fleet and investing in future weapon systems,” said Gen. Mike Hostage, the commander of ACC.

The RMP replaces the F-15E’s more than 20-year-old legacy APG-70 mechanically scanned radar with an active electronically-scanned array, or AESA, system designated as the APG-82(V)1.

“The old radar system is hydraulic, has moving parts and requires three maintainers to perform repairs after every 30 flight hours,” said Master Sgt. Jennifer Schildgen, a 366th Fighter Wing avionics manager. “The new radar system is a beam scan, doesn’t have any moving parts and is projected to only require one maintainer to perform repairs after more than 2,000 flight hours.”

The modification process is managed by Boeing representatives and takes two to three months to complete for each aircraft. The tentative plan is to complete RMP for 47 aircraft from the 389th FS and 391st Fighter Squadron by 2017.

So far, the F-15E fighter aircraft has flown more than 11 hours with the new radar. Source

Link 16 data net system


ViaSat’s team is leading the transformation in Link 16 Airborne Terminal technology by being the first to upgrade the design of many components of the terminal to provide greater flexibility, enhanced technological capabilities, decreased cost and improved reliability. Embedded modules provide COMSEC and TACAN.


Through extensive use of reprogrammable components and a modular VME architecture, we’ve provided a lower cost design while also allowing for future requirements. Our terminal provides all operational modes of the Link 16 waveform, and implements all required Multifunctional Information Distribution System (MIDS) host interfaces for both U.S. and Coalition integration. Our hardware implements Enhanced Throughput, a new capability that can increase coded data throughput from its current maximum of 115.2 kbps to over 800 kbps. Host interfaces and operational employment of this capability are still in the planning stages.


Together with Harris and European Aeronautic Defense and Space Company (EADS), ViaSat is delivering a family of combat-proven, fully qualified, and EMC-Certified Link 16 MIDS terminals to U.S. Forces and Coalition partners under contracts to the Navy MIDS International Program Office (IPO) and other commercial customers. Source

Digital Electronic Warfare Suite (DEWS) 

slide15Image @from the web
Electronic Warfare: Instead of the TEWS used in the Strike Eagle, the F-15SE features a digital electronic warfare system (developed by BAE Systems), dubbed as DEWS. DEWS was developed by leveraging F-22 and F-35 EW program results and replaces 4 legacy systems of the Strike Eagle. It is fully digital (hence its name) and works in close integration with wideband RF systems, including the APG-82 AESA radar, giving the jet a very sharp edge in the electronic warfare arena.

DEWS offers full quadrant detection and response control, containing aft receiving antennas on top of the tails, aft RF transmitters and antennas built in the tailbooms, forward RF transmitters and antennas built in the leading edge of the wing roots, forward receiving antennas built in the wingtips and a low band Rx knife antenna placed on the underbelly of the jet below the cockpit.

DEWS includes a digital RWR, digital jamming transmitter, ICS and an interference cancellation system. According to Boeing, the system enables the Silent Eagle to jam enemy radars while its own radar and RWR continues to operate. Source


The F-15E is fitted with the Lockheed Martin LANTIRN navigation and targeting system. The LANTIRN navigation pod contains a Forward-Looking Infrared (FLIR) sensor, which produces video images that are projected onto the pilot’s HUD, and terrain-following radar. The LANTIRN system can be coupled to the flight control system for hands-off terrain, following at altitudes as low as 200ft. The LANTIRN targeting pod contains a tracking FLIR and laser designator.

Lockheed Martin LANTIRN navigation and targeting system


LANTIRN Extended Range (ER) navigation and targeting pods provide today’s warfighter with enhanced range, resolution and reliability delivering multi-mission success with a low cost of ownership. LANTIRN ER allows aircrews to operate, in daylight or darkness, at mission altitudes from sea level to 40,000 feet, all with outstanding targeting performance.  LANTIRN ER, which is the latest LANTIRN production configuration, is offered as a newly fabricated pod, or as an upgrade to existing pods. Source

The FLIR imagery, for terrain following, avoidance and navigation, is generated by a wide field of view FLIR sensor, sensor, mounted in the port LANTIRN navigation pod, together with the terrain following radar (TFR). The second LANTIRN pod, starboard mounted, is termed the targeting pod. It contains a narrow field of view FLIR sensor, boresighted with a laser rangefinder/designator and importantly, in its later versions, an automatic target recogniser. Source

The FLIR imagery, for terrain following, avoidance and navigation, is generated by a wide field of view FLIR sensor, sensor, mounted in the port LANTIRN navigation pod, together with the terrain following radar (TFR). The TFR is an advanced digital system which automatically controls its power output, both in direction and time (it will build up a terrain profile in its memory, store it, switch off and turn on again only when necessary to rebuild the profile), is frequency agile and can be configured for ground mapping. The frequency agility and silent on/off operation make it very difficult to detect. The second LANTIRN pod, starboard mounted, is termed the targeting pod. It contains a narrow field of view FLIR sensor, boresighted with a laser rangefinder/designator and importantly, in its later versions, an automatic target recogniser. Source

LANTIRN stands for Low Altitude Navigation and Targeting Infrared for Night. This system consists of two pods hung under the air intakes – the AN/AAQ-13 navigation pod under the right intake and the AN/AAQ-14 targeting pod under the left intake. Since LANTIRN pods are in use with other platforms (A-10, F-16) where they have other hanging points, adaptor units are needed to fix them on the F-15E. The adaptor units are the ADU-576/A for the navigation pod and ADU-577/A for the targeting pod. This is the only place on the F-15E for them and they cannot be exchanged. Although both of the pods are capable of working alone, most of the time they come in pair, an F-15E with only one LANTIRN pod is a rare sight. Source

After obtaining a radar image off the target area, the F-15E aircrew can designate targets by positioning a cursor on the radar display. The target data is transferred to the LANTIRN system for use by the tracking FLIR, which enables aiming of air-to-ground weapons from up to ten miles. Target tracking data is handed automatically to precision-guided weapons such as low-level laser-guided bombs, which can be guided to the target after release.

Navigation Pod

It contains a terrain-following ( TF) radar, a forward-looking infrared ( FLIR) sensor, plus a control computer, a power supply (the pod uses power from the aircraft’s power system) and an environmental control unit.

Both the TF radar and the FLIR are aimed at allowing the F-15E to make a high speed, low altitude penetratation of enemy airspace at night and/or in adverse weather conditions. These two systems give a powerful edge to the Strike Eagle when it comes to deep interdiction missions, thus making the jet an extremely capable night flying platform.

Terrain-Following Radar

The AN/APN-237A terrain-following radar is located behind the round radome forming the forward end of the pod. It is a KU band radar manufactured by Texas Instruments. When operating, it constantly scans the terrain in front of the jet and combining it with using altitude and airspeed data, it is able to generate inputs to the autopilot to maintain its pre-set altitude thus making the jet follow the contours of the terrain totally ‘hands off’, that is without inputs from the pilot. When the autopilot is not in use the TF radar is able to generate maneuvering cues for the pilot to avoid ground obstacles.

Forward Looking Infrared

The LANTIRN navigation pod contains a fixed, wide file of view (21×28 degrees), advanced 3rd generation mid-wave (8-12 micron) forward looking infrared ( FLIR) sensor. The window of this sensor can be found directly above the TF radome.

This FLIR sensor generates an infrared image of the terrain in front of the aircraft and projects it onto the pilot’s HUD. This way the pilot is able to see the terrain in front of him through the HUD in shades of green even in total darkness or in adverse weather conditions. Seeing the terrain the pilot can easily fly at high speeds very close to the ground, thus using terrain features (mountains, valleys) to avoid enemy detection. The WSO can view the same image on one of his multi-purpose display, by calling up the HUD-repeater page. Note that the repeated FLIR image is available for the WSO regardless of whether the pilot had actually chosen to put the FLIR image on the HUD or not. Source

Targeting Pod

Lockheed Martin created an improved version of the pod in 1995 mainly for the Navy’s F-14 Tomcats. This pod integrated the navigation and targeting features in one unit, plus brought many improvements over the previous two-pod LANTIRN system.

The targeting pod features a data-logging module ( DLM) which communicates with the pod’s control computer to provide real-time data recording and logging. Data can be analyzed after landing by connecting a portable data terminal into the appropriate socket outside of the pod. The DLM system can be of great help for the ground crew when trying to find minor or lower-level errors.

Targeting Laser

The pod contains a laser designator/rangefinder to aid the delivery of precision guided munitions (PGM’s) plus the software necessary to automatically track the selected target regardless of the maneuvering of its host plane. The designator is a four-digit PRF coded laser which can designate for the aircraft’s own weapons and for the weapons of other aircraft as well (this latter technique is called ‘buddy-lasing’). In case of unguided (‘dumb’) bombs the laser is used to determine target range and the pod feeds this input to the aircraft’s fire control system.

To be able to follow the target within wide limits, the nose section (called NESA – Nose Equipment Support Assembly) of the targeting pod can rotate, thus giving the laser a 150 degree field of regard. When the system is not operating, the nose rotates the vulnerable sensors towards the belly of the jet, thus protecting it from elements (this is especially useful during takeoff and landing when ground debris could cause severe damages to the sensors). Source

In August 2001, Lockheed Martin was selected to provide the Sniper XR as the new Advanced Targeting Pod for USAF F-16 and F-15E aircraft. Sniper XR (extended range) incorporates a high-resolution mid-wave FLIR, dual-mode laser, CCD TV, laser spot tracker and laser marker combined with advanced image processing algorithms.

Sniper Advanced Targeting Pod

Sniper Advanced Targeting Pod (Photo by Lockheed Martin)

It is safe to say that the AN/AAQ-33 Sniper XR (manufactured by Lockheed Martin Corporation) is the most advanced targeting pod in service in the world today. Based on its predecessor, the LANTIRN targeting pod, it is far superior in range (3-5 times the range of LANTIRN), resolution, stability and in many other parameters. The first time in the history of targeting pods, it allows pilots to pick out even individual enemy soldiers on the ground from outside jet noise ranges. It is highly reliable, having an MTBF value (mean time between failures) of over 600 (!) hours. Its hardware and software configuration featuring “plug-and-play” flexibility across services and multiple platforms, Sniper XR can be used on A-10, B-1, B-52, F-15E, F-16 and F-18 aircraft. Source

Northrop Grumman AN/ASQ-236 Radar Pod


The AN/ASQ-236 Radar Pod contains synthetic aperture radar that provides detailed maps for surveillance, coordinate generation and bomb impact assessment purposes. It will be operational on the F-15E Strike Eagle aircraft.

The AN/ASQ-236 Radar Pod contains synthetic aperture radar that provides detailed maps for surveillance, coordinate generation and bomb impact assessment purposes. This technology provides Combat Air Forces with the ability to precisely geo-locate points of interest and conduct surveillance activities day or night, in adverse weather conditions.

Operational on the F-15E Strike Eagle aircraft, the AN/ASQ-236 pod system is externally mounted and fully integrated with the aircraft. The radar pod is a self-contained system consisting of an antenna, inertial navigation system, and environmental cooling system. The antenna is attached to a positioner plate that allows it to move about the roll axis.

The pod design also incorporates a fully automated built-in-test, or BIT, that indicates the health of the system to the operator and maintenance crews. The BIT allows fault isolation to the line-replaceable module level enabling high system availability.

Recognizing the need for an all-weather precision geo-location and reconnaissance system with the reliability and performance inherent in Active Electronically Scanned Array radars, the U.S. Air Force with Northrop Grumman embarked on a program in the late 1990s to design, fabricate, test and field a unique radar system known as the AN/ASQ-236.

Information concerning the design, development, and production of the ASQ-236 is classified to protect critical technologies and improved operational capabilities. By leveraging the technology development associated with the F-22 Raptor, the release of this new sensor will enhance all-weather precision geo-location and provide greater surveillance and reconnaissance capabilities supporting current and future operations.

img_1148_fcAN/ASQ-236 pod system on center line
General Characteristics
Primary function:
Precision geo-location and non-traditional intelligence, reconnaissance and surveillance
Prime Contractor: Northrop Grumman Corporation
Length: 130 inches (3.302 meters)
Diameter: 20 inches (0.508 meters)
Weight: 1, 000 pounds (454 kilograms)
Aircraft:  F-15E
Date Deployed: June 2009
Inventory: Classified

Operational deployment of the Sniper pod on the F-15E began in January 2005, in support of Operation Iraqi Freedom.

Fill 'er up


The aircraft is equipped with an integrated internal electronic warfare suite, including: Lockheed Martin AN/ALR-56C radar warning receiver; Northrop Grumman AN/ALQ-135(V) radar jammer; and Raytheon AN/ALQ-128 EW warner. Northrop Grumman is upgrading the ALQ-135 to band 1.5 standard. It is also fitted with a BAE Systems Integrated Defense Solutions (formerly Tracor) AN/ALE-45 automatic chaff dispenser.


Flight control

The F15E is equipped with a triple-redundant BAE SYSTEMS Astronics flight control system. Using manual terrain following, navigation is possible over rough terrain at altitudes down to 200ft, at nearly 600mph, with the pilot following commands from the LANTIRN system. Automatic terrain following is accomplished through the flight control system linked to the LANTIRN navigation pod’s terrain-following radar.


F-15Es are equipped with Pratt & Whitney F100-PW-229 low-bypass turbofan engines, which provide 29,000lb of thrust per engine. Using the digital electronic engine control system, the pilot can accelerate from idle power to maximum afterburner within four seconds.

Pratt & Whitney F100-PW-229

aar.jpg Pratt & Whitney F100-PW-229 [Graphic by Pratt & Whitney]

The PW-229 variant was introduced in 1992, the first jet to be equipped with it was 90-0233. Many people say that the PW-229 was not as reliable as the PW-220, but these criticisms are often dismissed in the light of the sheer power of PW-229. In fact the power of the 229 engine is such that an F-15E flying in a clean configuration (i.e. no external ordnance and pods) and without CFT’s can even reach supersonic speed without using afterburner. This is called ‘supercruise’ ability, a term that was introduced with reference to the ultramodern F-22 Raptor!

PW-229 features an Improved DEEC ( IDEEC) and 22% more take-off thrust than its predecessor. It reacts more quickly to pilot inputs (only 4 seconds from minimum power to maximum power, compared to 7 seconds of PW-220). Its greater power and quicker reactions make the PW-229 the engine of choice among Strike Eagle pilots – especially when they are talking about missions flown with heavy weapons loads.

The PW-229 has bigger cooling requirements, hence CFT’s had to be redesigned to equip with cooling scoops that reached further than the relatively slower CFT boundary layer airflow. The PW-229 was also capable of powering an increased capacity generator.

Another big difference between these two engine types is the presence of ATDPS (Assymmetric Thrust Departure Prevention System). Only PW-229’s are equipped with this. You can read more about this further below in this article.

Since the F-15E being a twin engine fighter, each of the engines have its own air induction system. These systems work independently of each other. Each of these systems consist of three variable ramps, a variable diffuser ramp and a variable bypass door to control airflow from the point of entering into the inlet duct to the point of entering the engines.

The goal is to provide the engines an airflow as smooth and optimal as it can be. The variable ramps provide air at optimum subsonic flow to the face of the engine fan inlet within a wide range of aircraft speeds. The bypass door is used to relieve excess pressure in the inlet duct by driving excess air to the airflow outside of the aircraft if necessary.

General Characteristics

Primary function: Air-to-ground attack aircraft
Contractor: The Boeing Company
Power plant: Two Pratt & Whitney F100-PW-220 or 229 turbofan engines with afterburners
Thrust: 25,000 – 29,000 pounds each engine
Wingspan: 42.8 feet (13 meters)
Length: 63.8 feet (19.44 meters)
Height: 18.5 feet (5.6 meters)
Weight: 37,500 pounds ( 17,010 kilograms)
Maximum takeoff weight: 81,000 pounds (36,450 kilograms)
Fuel capacity: 35,550 pounds (three external tanks plus conformal fuel tanks)
Payload: depends upon mission
Speed: 1,875 mph (Mach 2.5 plus)
Range: 2,400 miles (3,840 kilometers) ferry range with conformal fuel tanks and three external fuel tanks
Ceiling: 60,000 feet (18,288 meters)
Armament: One 20mm multibarrel gun mounted internally with 500 rounds of ammunition. Four AIM-9 Sidewinder missiles and four AIM-120 AMRAAM, or eight AIM-120 AMRAAM missiles. Any air-to-surface weapon in the Air Force inventory (nuclear and conventional)
Crew: Pilot and weapon systems officer


Main material source:

Images are from public domain unless otherwise stated

Main image Dafydd Phillips

Updated Apr 15, 2019


Dong Feng 41 (DF-41 / CSS-X-20) ICBM

The Dong Feng 41 (CSS-X-10) is a road- and rail-mobile intercontinental ballistic missile (ICBM). The DF-41 is currently in its final testing stages and will be the next land-based ballistic missile to be deployed in the People’s Republic of China (PRC). It is estimated to have an operational range of 12,000 to 15,000 km, which would make it the longest range missile in operation. It will likely have a top speed of Mach 25 and will be capable of delivering up to 10 MIRVed warheads. It is projected to be able to strike the continental United States within 30 minutes.  Source


China will put its most powerful intercontinental ballistic missile into service as early as this year, according to a regional defence magazine.

The DF-41, which was described by Washington as the world’s longest-range missile, has entered its final test phase, according to Canada-based Kanwa Asian Defence.

With an operational range of up to 14,500km, the DF-41 would first be deployed to the advanced brigade of the People’s Liberation Army’s new Rocket Force based in Xinyang in Henan province, the report said.

From there, the missile would be able to strike the United States within half an hour by flying over the North Pole or slightly more than 30 minutes by crossing the Pacific, the report said.

But defence analysts said it was not clear if the DF-41 could break through the multilayered US missile defence system in the Asia-Pacific region.

“No one questions the longest range of the DF-41 is near 15,000km. But within just a few minutes of being launched, it might be blocked by the US’ defence system at its Guam naval base,” Professor He Qisong, a defence policy specialist at the Shanghai University of Political Science and Law, said.

The solid-fuel, road-mobile ICBM had been tested at the Wu­zhai Missile and Space Test Centre – also known as the Taiyuan Satellite Launch Centre – in Shanxi province since last summer, the Kanwa report said.

The DF-41 has been tested at least five times since July, 2014, according to the US-based Washington Free Beacon.

Earlier reports from the website said US intelligence agencies had detected that the PLA’s missile force submitted a DF-41 missile to a “canister ejection test” from a railway-mounted mobile launcher on December 5.

The test was a milestone for Chinese strategic weapons developers and showed that Beijing was moving ahead with building and deploying the DF-41 on difficult-to-locate rail cars, in addition to previously known road-mobile launchers, the website said.

Kanwa chief editor Andrei Chang said the strike rate of the DF-41 would improve further after 2020 when China completed its home-grown BeiDou navigation satellites, helping to wean the PLA off its dependence on the US’ Global Positioning System.

But He said the US might develop technology to jam the BeiDou system’s signals.

“The US has spared no effort to upgrade its missile defence system year after year,” He said. “The missile systems – so far – are just a game of threats played among the great powers.” Source:


Topol-M: Details

Minuteman III: Details




Updated Dec 22, 2018

India’s New Stealth Fighter to Get Mach 3 Super Missile?

The National Interest

Dave Majumdar March 28, 2016
India’s version of the Sukhoi T-50 PAK-FA stealth fighter will likely be armed with the Russian-Indian BrahMos supersonic cruise missile. However, the weapon—which is based-on the P-800 Oniks anti-ship missile—will have to be modified to be carried onboard the fifth-generation warplane.

“We are presenting BrahMos to many Indian public and private defense companies, from some of them we get a technical job,” Sudhir Mishra, the head of BrahMos Aerospace, told the Russian media outlet RIA Novosti.

“We presented it also to developers of the FGFA — they asked to adjust the size of the missile, so it can be placed on board the aircraft. Such work is ongoing.”

While the Indians and Russians have been having disagreements on work share and the price tag of the Fifth-Generation Fighter Aircraft (FGFA)—as the Indian PAK-FA is known—the addition of the BrahMos to the jet would afford New Delhi a potent new capability.

One the stealthy new aircraft has completed development, the FGFA—assuming the project materializes—would enable the Indian Air Force to penetrate into hostile airspace and strike at even the most heavily defended targets. The jet would use its stealth and speed to get into launch position and launch the BrahMos from standoff ranges.

With its Mach 3.0 speed and 180-mile range, the BrahMos missile used in combination with the PAK-FA would enable India to hit Chinese and Pakistani targets with relative impunity. A Mach 3.0-capable cruise missile is difficult to counter. According to U.S. Navy sources, the BrahMos has a particular terminal phase that makes it particularly difficult to intercept.

Dave Majumdar is the defense editor for The National Interest. You can follow him on Twitter: @davemajumdar.


See related post:

Four Countries Negotiating Purchase of Russian-Indian BrahMos Missiles

BrahMos to Boost the Strike Capacity of Indian Air Force


The Royal Thai Navy (RTN) received six Special Operations Craft – Riverine (SOC-R)

The Royal Thai Navy (RTN) received six Special Operations Craft – Riverine (SOC-R) on 18 March to replace aging Patrol Boat Riverine (PBR).

Monday, March 28, 2016

The Royal Thai Navy (RTN) received six Special Operations Craft – Riverine (SOC-R) on 18 March to replace aging Patrol Boat Riverine (PBR).

These 10m-long SOC-R boats were built by Marsun, the Thai dockyard that also built the first three M10 Mk I SOC-Rs in 2012. These latest M10 Mk II boats are designed to operate along inland waterways and in coastal areas, chiefly to support special operations.

Propulsion comes from two 420hp engines with waterjets offering maximum speeds of 40+kt. They carry five crewmen and eight troops. The heaviest possible armament consists of three .50-cal machine guns.

These new SOC-Rs of the Riverine Squadron will operate in inland and boundary waterways like the Mekong River and Golden Triangle.


Their missions are to keep the peace, prevent illegal immigration, human trafficking, drug smuggling or any actions that harm homeland security. The SOC-Rs also provide fire support in combat situations.

screenshotAtUploadCC_1519188659819 (1)

Additionally, the boats will be used in humanitarian relief missions and to protect the royal family and VIPs.

The RTN needs more than 40 SOC-Rs to replace the Riverine Squadron’s 39 aging PBRs, some of which are more than 30 years old. All will be locally built.


Written material from Asian Defence News

M10 Mk I SOC-R

New upgraded T-72B3M/B4 MBT will enter in service with Russian army

Russia is planning to modernize its 150 T-72 main battle tanks (MBT) to the T-72B3M version also called T-72B4. According to Russian military engineers, the upgraded T-72 MBT will be comparable to the more advanced T-90, but with much lower costs.

Russia is planning to modernize its 150 T-72 main battle tanks (MBT) to the T-72B3M version also called T-72B4. According to Russian military engineers, the upgraded T-72 MBT will be comparable to the more advanced T-90, but with much lower costs.T-72B3M/B4 of Russian team at The Final of International Russian army Tank Biathlon 2014

Currently, Russian armed forces use a wide range of T-72 MBT variants. The T-72 is a russian made main battle tank that entered production in 1970. It is a further development of the T-62 with some features of the T-64A (upgraded version of basic T-64) and has been further developed as the T-90.

Russia will spend 2.5 billion rubles ($37 million) to upgrade 150 T-72Bs to the advanced B3M standard, Uralvagonzavod deputy director Alexey Zharich told the Russian newspaper Izvestia.

The T-72B3M (T-72B4) will be upgraded with lot of new components including the new cannon 2A46M5 125-mm smoothbore gun as well as the new Sosna-U sighting system paired with the 1A40-4 fire-control system. The tank will also receive a new ballistic computer to increase accuracy.

Upgraded T-72B3 shown in Victory Day Parade: Here


The upgraded T-72B3 were first seen during rehearsal for the Victory Day Parade which has increased protection than the standard T-72B3 featuring new add-on explosive reactive armor package, which covers rear part of the turret. This tank is also fitted with cage armor, which covers rear parts of the hull and turret and improved side skirts.

T-72B3 at Kadamovski Range

T-72B3 column on the way to shooting range, Zapad-2017 military exercises



Independent commander’s PK PAN sight

The most notable upgrade is the stabilized, panoramic, independent commander’s PK PAN sight with integrated thermal viewer, thought to have similar specifications to the Sosna-U. This gives the tank the ability to engage targets in the “hunter-killer” mode. Source

2A46M5 125-mm smoothbore gun

2A46M5 125-mm smoothbore gun (the lower cannon)

The T-72B3M will be equipped with an independent panoramic sight for the tank’s commander, with its own thermal imaging device. (See above)

U sighting system paired with the 1A40-4 fire-control system for gunnerSosna-U installation in a T-72 tank installation in a T-72 tank installation in a T-72 tank

The tanks will also get the new Relikt explosive reactive armor. It will replace the old Kontakt-5 system and is expected to be two times more effective.

“Classic” ERA from the USSR and Russia 4S22 (Kontakt-5)

It’s good to start describing “Nozh” with a point of reference first – for example heavy reactive armor types designed in the USSR/Russia, 4S22 (Kontakt-5) and 4S23 (Relikt). The overall working principle of every classic ERA is similar – it’s based on movement of metal elements of the ERA cassette caused by an explosion of reactive elements , this inflicts side stress disrupting the cumulative jet from a HEAT round or bending (optimally breaking) of an incoming KE penetrator. This overall principle is realized by different cassette’s structure. First, let’s look how Kontakt-5 ERA provides protection for Object 188 (T-90S tank).


4S22 Kontakt-5 scheme. Dark blue – external hardened metal
plate, violet – elements preventing the explosive inserts from moving, light
green – explosive inserts, light blue – cassette’s back plate and mounting
points. The explosive inserts are shown below the scheme. All pictures belong
to the author if not stated otherwise.

Supremacy of Soviet armor?

The introduction of heavy Kontakt-5 ERA in 1987 caused a gap between the capabilities of NATO’s rounds and the armor of Soviet tanks. From theoretical point of view APFSDS and tandem HEAT warheads capable of penetrating heavy ERA were introduced in 1992-1994 thus creating an almost 6 year disproportion between the Soviet “shield” and the NATO’s “sword”. Another fact worth noting is that the basic armor of Soviet tanks was already largely immune to APFSDS rounds, majority of RPG’s and some ATGM’s warheads. A good example is the basic armor of the hull and turret of the export version of Object 478B (T-80UD from 1991) including both steel and ceramic elements it is over 620 mm RHA vs APFSDS and over700 mm RHA vs HEAT. By adding Kontakt-5 ERA the protection level is further increased – especially against HEAT warheads. Similar high protection is for T-72B model 1989 when the sum of only passive hull armor elements gives over 600 mm RHA vs APFSDS.

Presented situation was theoretically very dangerous for western AT rounds but it was lowered by few factors – rather large weak zones in the frontal armor and not thick enough coverage by ERA cassettes. In reality every tank has various weak zones which can be penetrated by older ammo. In case of T-72 family these are: gun mantled, gun mounting area, coaxial MG, turret roof, commander’s observation copula, turret ring and the lower hull glacis.

These weak zones are shown in a résumé of an article printed in the internal bulletin
of the Armored Forces of the USSR. The article states about advantages of tanks
with welded turrets in terms of better crew survivability. What’s important is
that T-72B (Object 184) was used as a reference point and its weak zones were

T-72B weak zones

The areas marked in red were considered weak zones and could be
penetrated by 3BM26 APFSDS which was introduced in 1984 and penetrates 380-410
mm RHA at 2000 m for 90 degree sloped target. The marked areas were penetrated
by this projectile from:

– driver’s hatch – 1700 m,
– turret roof – 3700 m,
– commander’s copula – 3900 m,
– gun mantled, gun mounting area and coaxial MG – 1650 m

LiveLeak-dot-com-c47_1421699338-rys3i4_1421699540Photo : Vitajin Kuzmin.
T-72B3 tank. Green – area protected by the Kontakt-5 ERA, red – “weak
zones” from the Bulletin of the Armored Forces from 1991. Except for a small
portion of the roof the areas do not cover each other almost at all. Photo : Vitajin Kuzmin. Written by : militarysta  Translated by : Bzdziuchanson

Relikt explosive reactive armor

Relikt consist of single explosive tile, sandwiched between 2 plates. At event of hit, explosive detonates and “push” plates in opposite directions. And thats all, there is no second explosive charge. IIRC NII Stali noted that there is a sort of damper layer on armor itself (between ERA main part and armor plate of a tank), to soften up a force from second (“inner”) plate hit.

New Relikt explosive reactive armor

Nozh offers slightly higher protection than Kontakt-5 against some warheads simply because K-5 module have 0.5 kg of explosives, while one block of Nozh is filled with ~2 kg of explosives. Relikt also have about same amount of explosive filler, but Nozh is mounted directly on tank armor, while Relkit is mounted at some distance, with second inner plate and damper mounted on armor plate to protect it from damage by ERA detonation. Source

Furthermore, the upgraded version will be powered with the new V-92S2F engine and deliver 1,130 hp. It will replace the old 780-hp diesel engine. The new engine is paired with an automatic transmission system and improved drivetrain to improve the tank’s mobility. Source

Modernized tank t-72B (t-72B3 with additional options). MILEX 2014

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

Модернизированный танк Т-72Б (вариант Т-72Б3 с дополнительными опциями) – Modernized tank t-72B (option t-72B3 with additional options).

V-92S2F engine 

V-92S2F engine 

V-92S2F diesel engine was specially designed for installation on the upgraded and new serial tanks T-72B3. It has a power of 1130 hp.

The V-92S2F is the result of a deep modernization of the V-92C2 engine, with which it has a high level of unification: it has the same overall dimensions and is installed in the power compartment of the main battle tank without any modifications of the hull.

But in comparison with the B-92S2, it has a more powerful crankcase, crankshaft, conrod-piston group, improved turbocharger, exhaust system and cooling system. The heads of the cylinder block are cast from a heat resistant aluminum alloy. The fuel system provides high efficiency and has a power limiting mechanism that reduces the load on the diesel engine when the temperature extremes are reached.

The beginning of the mass production of the B-92S2F diesel engine was announced in November 2017. Source

Основные новинки представленного танка заключаются в двигателе (1160 л.с. с автоматом переключения передач), новом панорамном прицеле командира с лазерным дальномером (ВОМЗ), установке телевизионной камеры заднего обзора на кормовом листе корпуса танка и ряде других усовершенствований. –  The main novelties introduced by the tank are in the engine (1160 HP with automatic gear), new panoramic Commander’s sight with laser rangefinder (VOMZ), installing rearview camera on the tank hull fitted sheet and a number of other improvements.

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

Решение весьма неудачное, т.к. полностью препятствует усилению бортов динамической защитой – Log an unditching beam placed on the right side (on-the-go tank) in connection with the installation of the rear view camera. The decision is very unfortunate, because it prevents the strengthening boards dynamic protection.

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

Установка ДЗ на башне аналогична Т-72Б3. У наводчика установлен многоканальный прицел «Сосна-У» разработанный белорусским ОАО «пеленг». Прицел не уступает уровню современных мировых аналогов. – Installation of the DMZ on the tower is similar to the t-72B3. Gunner installed multi-channel sight “Pine-u” developed by Belarusian JSC “Peleng”. The sight is not inferior to the level of modern analogues.

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

Установка ДЗ «Контакт-5» на ВЛД. На первом (слева) фото видна установка ДЗ, вся верхняя плита носового узла корпуса не прикрыта. Чем думали конструкторы УКБТМ при создании такой конструкции остается загадкой. На фото справа крышка для установки элементов ДЗ с установленной резиновой прокладкой. – Setting DMZ “contact-5” on VFD. The first (left) photo visible installation of the DMZ, the whole top plate bow site not covered. Than thought FEDERAL designers when creating such a construction remains a mystery.
In the photo on the right cover for RS installation with installed rubber gasket.

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

На фото виден панорамный прицел командира. Удивляет небрежность изготовления, которую читатели могут увидеть на фото по торчащим проводам и платам. – In the photo visible commander panoramic sight. Surprising negligence of manufacturing, which readers can see in the photo of filmmaker Theo van Gogh wire and boards.

Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014

На кормовом листе установлена видеокамера заднего обзора с открывающейся дистанционно шторкой. Можно предположить, что место выбрано крайне неудачное и объектив будет загрязнен весьма быстро. – The aft sheet rear view camera is installed with an opening shutter remotely. It can be assumed that the place chosen is extremely unfortunate and lens will dirty very quickly.
Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014
Модернизированный танк Т-72Б (Т-72Б3 с дополнительными опциями). MILEX 2014
В танке применяется новая моторно-трансмиссионная установка с двигателем мощностью 1160 л.с. и автоматом переключения передач. – In a new tank power pack with an engine capacity of 1160 HP and automatic gear shift.
Source World of tank Розыгрыши танков
Updated Sep 18, 2017


Defense Updates

Defense Updates

Published on Mar 27, 2016
















PLZ-05/PLZ-52 155mm Self-propelled tracked howitzer armoured vehicle

The PLZ-05 is a Chinese tracked self-propelled howitzer armoured vehicle designed and manufactured by the China North Industries Group Corporation (CNGC). The development of the PLZ05 reportedly began in the mid-1990s, it was a further development of the PLZ45 and the first prototype was completed in 2003.


The howitzer may have been certified in 2005~06. A model of the howitzer was first revealed by the China North Industries Group Corporation (CNGC) during the 2005 Beijing International Aviation Expo. The PLZ-05 was first revealed by the China North Industries Group Corporation (CNGC) during the 2005 Beijing International Aviation Expo. The PLZ05 155mm self-propelled howitzer entered service with the PLA around 2007, intended as a replacement for the ageing Type 83 152mm self-propelled gun-howitzer deployed at the army- and division-level to provide long-range accurate firepower.



The main armament of the PLZ-05 is composed by a 155 mm gun, with a barrel lenght of 52 or 54 calibre. A 12.7 mm machine gun is mouted to the roof of the turret as anti-aircraft protection. Four smoke grenade launchers are mounted on the turret front on each side of the main gun.


The PLZ-52 SPH adopts an advanced digital fire control system, and is also characterized by quick reaction and outstanding battlefield survivability. Its laser/fiber-optic gyro navigation system can guarantee autonomous engagement capability without a survey vehicle’s support. The computerized information integration technology improves information sharing and simplifies operation. Smart projectiles, such as GS1 155mm smart projectiles and 155mm laser-homing projectiles enable the PLZ-52 to strike accurately against various targets in the battlefield. Standard equipment of PLZ52 includes an auxiliary power unit, NBC system, explosion detection and suppression system and a fire suppression system.  Source

PLZ-05 155mm self propelled howitzers direct fire at target

IDEX 2017: PLZ52 – Chinese mobile howitzer – Jane’s

PLZ-05 / Type 05

Self-propelled howitzer with a 52 caliber barrel, 800 hp diesel engine & gross weight of 35 tonnes. It is deployed only with the People’s Liberation Army. The PLZ-05 can fire the WS-35 shell, a 40 lb (18 kg) guided munition with accuracy of 40 m (130 ft) and a max range reported to be 100 km (62 mi). It is guided using Beidou Navigation Satellite System, the Chinese version of global positioning system, and inertial guidance. Source

The PLZ05 has a longer barrel, as well as longer range of fire. Turret of the PLZ05 was enlarged and resembles that of the Russian 2S19 Msta-S. It has a semi-automatic ammunition loading system. Some sources claim, that this autoloader has been copied from the 2S19. Source



The hull and the turret of the PLZ-05 is made of high hardness armor steel, which provide a protection against small arms firing and shell splinters of the battle field.


The PLZ-05 is motorized with a Diesel engine powerpack mounted at the front of the vehicle. The torsion bar suspension is composed to each side with six rubber-tyred road wheels and two track support rollers on each side, drive sprocket at the front and idler at the rear.


The PLZ-05 is equipped with an NBC protection and automatic fire suppression system.

One 155 mm gun and one 12.7 mm machine gun.
Country user
Company Designer
NBC protection system, Nigh/Day driving vision,
5 soldiers
Protection against small arms and shell splinters.
35,000 kg
55 km/hr on raod
550 km
Lenght, ? m; Width, ? m; Height, ? m

Main material source

Operators: Here

  • People’s Liberation Army: As of 2015, at least 276 units are in service with the People’s Liberation Army (PLA).

Although the turret integrated into the fully-tracked chassis is very similar to the Russian 152 mm 2S19 (MSTA-S), Chinese sources have insisted that the Type 05 has been fully developed in China and is not a copy of the Russian artillery system.

PLZ-52 are deployed only with the People’s Liberation Army.

As of 2012, at least 240 units are in service with the PLA, and a break-down by units are summarized as follows:

1. Shenyang Military Region, a Total of 60.

  • 39th Group Army, 7th Artillery Brigade, 1st and 2nd Battalions, a total of 36.
  • 39th Group Army, 116th Mechanized Infantry Division, Artillery Regiment, 1st Battalion, a total of 24.

2. Beijing Military Region, a Total of 72.

  • 38th Group Army, 6th Artillery Brigade, 3rd and 4th Battalions, a total of 36.
  • 38th Group Army, 112th Mechanized Infantry Division, Artillery Regiment, 1st and 2nd Battalions, a total of 36.

3. Nanjing Military Region, a Total of 36.

  • 1st Group Army, 1st Amphibious Mechanized Infantry Division, Artillery Regiment, 1st and 2nd Battalions, a total of 36.

4. Guangzhou Military Region, a Total of 72.

  • 41st Group Army, 123rd Mechanized Infantry Division, Artillery Regiment, 2nd and 5th Battalions, a total of 36.
  • 42nd Group Army, 124th Amphibious Mechanized Infantry Division, Artillery Regiment, 1st and 2nd Battalions, a total of 36.
Updated Sep 18, 2017


*Note: There is very little info on the main gun and powerpack used as some sources say it’s an 800hp while others stipulate it as 1,000hp!

US Navy extends Orbital ATK AGM-88E production

25 March, 2016 BY: James Drew Washington DC

The US Navy has extended production of AGM-88E Advanced Anti-Radiation Guided Missile (AARGM) multi-mode seekers, built by Orbital ATK, by three years to fiscal year 2023 with an added requirement for 556 more units.

That’s according to the Pentagon’s latest selected acquisition report, which shows an increase in planned production quantities from the 2003 objective of 1,879 units to 2,435, not including the 40 test assets. That and other changes bump up the total programme cost by $484.8 million to over $2 billion.

The missile modification was jointly developed by the USA and Italy to improve the effectiveness of legacy Raytheon AGM-88 High-speed Anti-Radiation Missile (HARM) variants against fixed and relocatable enemy radar and communications sites, particularly those that would shut down to throw off incoming anti-radiation missiles. Australia also procures AGM-88Es.

Asset ImageBoeing F/A-18 Super Hornet flight tests AGM-88E – US Navy

The new seeker attaches to the existing Mach 2-capable rocket motor and warhead section, adding a passive anti-radiation homing receiver, satellite and inertial navigation system, and a millimetre wave radar for terminal guidance. It can also beam up images of the target via a satellite link just seconds before impact.

Raytheon produces an alternative modification kit for the US Air Force, known as the HARM Control Section Modification (HCSM).

The Orbital ATK AARGM is compatible with all F/A-18 models and the EA-18G Growler, plus the Panavia Tornado, F-16, EA-6B and it will be carried externally on the F-35. It went into full-rate production in 2012.

Original post


Advanced Anti-Radiation Guided Missile (AARGM)

The Advanced Anti-Radiation Guided Missile (AGM-88E) provides the U.S. Navy, U.S. Marine Corps and Italian Air Force the latest and most advanced weapon system for engaging and destroying enemy air defenses and time-critical, mobile targets. AARGM is a supersonic, medium-range, air-launched tactical missile compatible with U.S. and allied strike aircraft, including all variants of the F/A-18, Tornado, EA-18G, F-16, EA-6B, and F-35 (external).

Designed to upgrade the AGM-88 High-Speed, Anti-Radiation Missile system (HARM), AARGM features an advanced, digital, anti-radiation homing sensor, millimeter wave (MMW) radar terminal seeker, precise Global Positioning System/Inertial Navigation System (GPS/INS) guidance, net-centric connectivity, and Weapon Impact Assessment transmit (WIA). Missile Impact Transmitter capability is available for approved customers. The missile offers extended-range engagement, as well as organic, in-cockpit emitter targeting capability and situational awareness.

New capabilities for the warfighter include:

  • Anti-radar strike with advanced signal processing and vastly improved frequency coverage, detection range and field of view
  • Time-critical, standoff strike with supersonic GPS/INS point-to-point or point-to-MMW-terminal guidance
  • Missile-impact zone control to prevent collateral damage through tightly coupled, Digital Terrain Elevation Database-aided GPS/INS
  • Counter-emitter shutdown through active MMW-radar terminal guidance
  • WIA transmission prior-to-impact for bomb damage assessment

Orbital ATK is teamed with MBDA to provide this advanced, cost-effective weapon system to U.S. and approved allied customers.


Weight 355 kilograms (783 lb)
Length 4.1 metres (13 ft)
Diameter 254 millimetres (10.0 in)
Warhead WDU-21/B blast-fragmentation in a WAU-7/B warhead section, and later WDU-37/B blast-fragmentation warhead.
Warhead weight 66 kilograms (146 lb)
FMU-111/B laser proximity fuze

Engine Thiokol SR113-TC-1 dual-thrust rocket engine
Wingspan 1.1 metres (3.6 ft)
Propellant Solid fuel
150 kilometres; 92 miles (80 nmi)[3]
Speed 2,280 km/h (1,420 mph)
Passive radar homingwith home-on-jamGPS/INS and millimeter wave active radar homingin E variant.[4] 500-20,000 MHz for AGM-88C
F/A-18F-4G, F-16Tornado IDSF-35 and others


Russia to deploy missile systems on Kuril islands: Minister

By AFP     3 hours ago in World

Russia will deploy a range of coastal missile systems on the far-eastern Kuril islands, claimed by Japan, as part of its military build-up in the region, Russian Defence Minister Sergei Shoigu said Friday.

“The planned rearmament of contingents and military bases on Kuril islands is under way. Already this year they will get Bal and Bastion coastal missile systems as well as new-generation Eleron-3 unmanned aerial vehicles,” Shoigu said during a ministry meeting.

Russia has been investing in military infrastructure on the Kuril islands, which Japan considers its territory, over the last few years, including building new barracks for personnel.

Shoigu said at the meeting that the military is focusing on “developing military infrastructure in the Arctic and Kuril island zones.”

Relations between Moscow and Tokyo have been strained for decades because of the status of the four southernmost islands in the Kuril chain, known as the Northern Territories in Japan.

Map locating the disputed Kuril islands off eastern Russia's Kamchatka peninsulaMap locating the disputed Kuril islands off eastern Russia’s Kamchatka peninsula, AFP/File

The Russian navy’s Pacific fleet next month will embark on a three-month mission to the Kurils to explore whether the islands could serve as a naval base as well.

This year and next year Russia is set to put up more than 350 buildings for military needs on the Kuril islands of Iturup and Kunashir, called Etorofu and Kunashiri in Japan.

Some 19,000 Russians live on the remote rocky islands, which were occupied by Soviet troops in the dying days of World War II.

The two countries have never officially struck a peace treaty and the lingering tensions over the issue have hampered trade ties for decades.

Original post


Other deployments:



bastion_kaliningrad1With 300 km range can control large parts of the southern Baltic Sea, for example from Kaliningrad. If you sit on Gotland will lock even more effective, as Karlis Neretnieks raised on Newsmill last week. – Image:


Bal coastal missile systems

BAL-E Coastal Missile System with Kh-35E (3M-24E) Anti-ship Missiles

The Bal-E mobile coastal missile system is designed:

– to control straits and territorial waters;

– to protect naval bases, other coastal installations and infrastructures;

– to defend coastline in probable landing approach areas.

The missile system can conduct combat actions, providing fully autonomous after-launch missile guidance in fair and adverse weather conditions, by day and night, under enemy fire and electronic countermeasures.

The Bal-E is a mobile weapon system, based on the MAZ 7930 chassis, comprising:

– up to two self-propelled command, control and communications (C3) posts;

– up to four self-propelld launchers with the Kh-35E (3M-24E) type anti-ship missiles in transport-launch containers (eight TLCs on a standard launcher);

– up to four transport-reload vehicles intended for preparing the next salvo.

The C3 post provides target reconnaissance, designation and optimal distribution between launchers. Active and passive high-precision radar channels allow the system to implement flexible target acquisition strategies, including covert ones.

The launchers and transport-reload vehicles can be deployed in covered positions in the depth beyond the coastline. In this case neither covertness of their combat positions nor man-made and natural obstacles in the direction of fire will limit combat imployment of the system.

The system can conduct both single and salvo fire from any launcher, with the capability of receiving current information from other command posts and external reconnaissance/target disignation data sources.

A salvo can include up to 32 missiles. One such salvo can thwart a combat mission carried out by an enemy naval attack group, a landing force or a convoy.

The system can fire the next salvo in 30-40 minutes thanks to its transport-reload vehicles. Combat management of the Bal-E assets is based on digital data transmission, automated communications, message processing and ciphering with guaranteed security.

The system is equipped with night vision, navigation, survey and positioning aids enabling it to rapidly change its firing positions after completing the assigned mission, and relocate to a new combat area.

The system can be deployed in the new position within 10 minutes.

An integrated coastal defence system combining the  Bal-E CMS, offshore patrol vessels with the Uran-E ship-borne missile systems and missile-carrying combat aircraft armed with the Kh-35E (3M-24E) unified anti-ship missiles, would be able to perform diverse operational and tactical tasks at minimal costs thanks to a single missile maintenance and repair system.

The system’s structure and exact number of the C3 posts, launch and transport-reload vehicles are defined according to customer requirements. The MAZ-7930 self-propelled chassis can be replaced with other types of chssis (it can be proposed for the light-configuration Bal-E CMS with enhanced agility and off-road capacity).

The Bal-E CMS has a considerable potential for upgrading.

Employment of additional target designation assets, such as radar picket helicopters or remotely piloted aerial vehicles, allows the system to increase its target detection range and precision.

The Bal-E CMS can be equipped with passive interference systems to considerably enhance its invulnerability to enemy guided weapons in dueling situations. Other upgrading options are also considered.

Prime developer: Machine-Building Design Bureau


 Engagement range (from coastline), km  up to 120
 Fire position distance from coastline, km  up to 10
 ammunition load, msls  up to 8
 Inter-missile launch time (in salvo),sec  not more than 3
 Max speed, km/h:
 on road  60
 off road  20
 Missile launch weight, kg  about 620
 Total ammunition load, msls  up to 64
 Endurance range (without refueling), km  not less than 850


Weapon Poseidon

The design of the Kh-35
1. Radar homing. 2. Penetrating warhead. 3. System liquidation. 4. Inertial guidance system. 5. Radio altimeter. 6. Intake. 7. Fuel System. 8. Turbofan engine. 9. Managing drive. 10. Tverdotoplivnyy boosters.

Bastion coastal missile systems: Details


China Deploys YJ-62 Subsonic Anti-Ship Cruise Missile To South China Sea’s Woody Island


By  On 03/25/16 

China has deployed a subsonic anti-ship cruise missile in South China Sea’s Woody Island amid heightened tensions in the disputed region, a report said earlier this week, citing recent imagery. Woody Island is a part of the Paracel Islands, and is largely controlled by China, but Taiwan and Vietnam have also laid claims on the islet.

The deployed Chinese anti-ship cruise missile YJ-62 has the capability to target any vessel within nearly 249 miles of the Woody Island. The image of launching YJ-62 was posted last Sunday on Chinese microblogging website Weibo, and it is consistent with photos copied from one of the many monthly Chinese military magazines that appear on Chinese military issue web pages, IHS Jane’s 360, a British publishing company that keeps records on military equipment, reported. The YJ-62 launch picture showed a radar dome, indicating that it is on Woody Island, the report added.

According to IHS Jane’s 360, the anti-ship cruise missile was likely deployed at about the same time the China’s HQ-9 surface-to-air missile system was first detected on the island in February. The YJ-62 reportedly arms the Type 052C destroyer launched in 2003.

On Thursday, Shahidan Kassim, Malaysia’s national security minister said about 100 Chinese-registered boats and vessels were detected, intruding into Malaysia’s waters near the Luconia Shoals in the South China Sea, state news agency Bernama reported. The minister added that the Malaysian Maritime Enforcement Agency and the navy assets have been deployed to the area to examine the situation. If the Chinese ships were found to have trespassed into Malaysia’s exclusive economic zone, Kuala Lumpur would take legal action, Shahidan said, according to the news agency.

The South China Sea region has been long contested, with Brunei, China, Malaysia, the Philippines, Taiwan and Vietnam laying claim to various areas. Beijing has been expanding its presence in the disputed area and has built three runways on the Spratly archipelago. However, China has consistently defended its actions, saying it does not have any intentions of starting a conflict and that its aircraft facilities will maintain safety in the region.

Original post


YJ-62 (export version C-602)

YJ-62 (export version C-602)
Tactical Chinese medium-range anti-ship missile, intended to attack ships of various types. The missile can be transferred by aircrafts or ships and submarines in containers.
The projectile incorporates some elements mainly from the Kh-55 (which were acquired from Ukraine in 1999-2001) and the Tomahawk. The missile is equipped with a small turbofan engine WS-500. Engine weight is 200 kg, the maximum thrust is 510 kg. The naval version of the missile is equipped with a solid fuel motor.


  •  People’s Republic of China
  • People’s Liberation Army Navy
    • Type 052C destroyer
  • People’s Liberation Army Navy Coastal Defense Force: 120+ as of 2012
  •  North Korea
  •  Iran


YJ-62 Long Range Anti Ship Cruise Missile (ACSM) Yingji-62 People's Liberation Army Navy export pakistan coastal defence missile system china chinese (3).jpgImage: Chinese Military Review


Chinese YJ-62 Long Range Anti Ship Cruise Missile (ACSM) carries warhead of 300 kgs at cruising speed of 0.9 Mach and it can destroy targets at distance of over 280 km.

See related post

This interactive map of China’s power in the South China Sea is a wake-up call to us all

General says Army at high risk in war against China, Russia

India Rejects Joint Naval Patrols with US in South China Sea

China plans aircraft carrier battlegroups to protect offshore interests

China sends surface-to-air missiles to contested island in provocative move

YJ-83 (C-803)

chinese-j-15-fighter-jet-yj-83-c803-antiship-missile-cv16-liaoning-aircraft-carrier-peoples-liberation-army-navy-pla-navy-j-15-16-17-18-19-j-20-j-31-z-8-z-9-z-10-z-19-z-15-z-16-z-17-aewc-pl-1J-15 carrying anti-ship missiles YJ-83/C-803 

Defense specialists say the YJ-83, sometimes called the C-803, also has the capability to receive target information in flight 

Richard Fisher, a specialist on the Chinese military with the Jamestown Foundation, said the new YJ-83 will probably be outfitted on the upgraded JH-7a fighter-bomber. 

“With a range of 250 km [155 miles], it gives the PLA and its export clients a new anti-ship missile that can fire beyond the reach of U.S. Naval anti-aircraft missiles like the Standard SM-2, which will soon equip Taiwan’s Kidd-class destroyers,” Mr. Fisher said.  Source



Chinese JH-7 Flying Leopard Test Fires Chinese JH-7 Flying Leopard Fighter-Bomber With YJ-83/C-803 AntiShip Missile.

See details of JH-7: HERE