According to the Russian MoD this video shows a Russian MiG-31 Foxhound taking down a cruise missile.
According to the press center of the Pacific Fleet of Russia, a Russian Navy MiG-31 Foxhound interceptor launched from the Kamchatka Peninsula, intercepted a supersonic cruise missile in the stratosphere during exercises that were conducted on the eve of the celebration of the Day of Naval Aviation.
The missile was launched from the water area of the Sea of Okhotsk at an altitude of more than 12 kilometers at a speed three times the speed of sound, Pravda new outlet reported.
The Mig-31 Foxhound is a two-seat Mig-25 Foxbat derivative in service since 1983.
Whilst the MiG-25 was built as a high-speed, high-altitude interceptor, capable of reaching the speed of Mach 3.2 to intercept American B-58 and B-70 bombers, the MiG-31 was designed to intercept the B-1B bomber, which was designed to operate at low-level, below the radar coverage.
The MiG-31 has quite good low-level capabilities (which MiG-25 does not) and is equipped with an advanced radar with look-down-shoot-down capability (needed to detect low-flying bombers), and data bus, allowing for coordinated attack with other fighters.
The production of the Mig-31, one of the world’s fastest tactical fighter in active service with top speed of Mach 2.83 and a range of 1,450 km, ended in the early 1990s, but the interceptor is being upgraded to extend its operative life up to the 2028 – 2030.
The Russian MiG-31BM jet, capable to carry up to four long-range R-33 missiles and four short-range R-77 missiles, was expected to carry a weapon able to shoot down space satellites; according to some sources, the ability to intercept a cruise missile, previously Kh-55 and now Kh-101, is something practiced by the Russian Foxhounds for years.
The video below, released by the Russian MoD, is said to show the test conducted on Jul. 17 (even though the actual interception of the cruise missile can’t be seen.)
Generally speaking, combat aircraft can intercept cruise missiles and engage them. However, such missiles are quite difficult to detect: they are optimised for low level flying through the Terrain Following capability, have a low radar cross-section and heat signature and, they are small.
This means that an inteceptor using a long-range missile from the right position and altitude might be able to do the job. But it shouldn’t be something too easy.
Testing conducted by the U.S. Navy has shown that shooting down cruise missiles, flying at low-level and high-speed is actually a pretty difficult task: on Sept. 12, 2016, a live test fire demonstration involved the integration of U.S. Marine Corps F-35B from the Marine Operational Test and Evaluation Squadron (VMX 1), based in Edwards Air Force Base, with existing Naval Integrated Fire Control-Counter Air (NIFC-CA) architecture.
F-35 and Aegis Combat System Successfully Demonstrated Integration Potential in First Live Missile Test (Lockheed Martin)
The F-35B acted as an elevated sensor (to detect an over-the-horizon threat as envisaged for the F-22) that sent data through its Multi-Function Advanced Data Link to a ground station connected to USS Desert Ship (LLS-1), a land-based launch facility designed to simulate a ship at sea. Using the latest Aegis Weapon System Baseline 9.C1 and a Standard Missile 6, the system successfully detected and engaged the target: a test that proved how detecting, tracking and engaging cruise missiles requires cutting edge anti-surface and anti-air weapons.
On the other side it is somehow interesting to note that a rather old weapons system, the MiG-31, albeit operating a Passive Electronically Scanned Array (PESA) radar, can be able to intercept stealthy cruise missiles (like the Kh-101 reportedly used in some tests), with the support of an AWACS plane.
We don’t actually know the exact type of test the Russians conducted. For sure it wasn’t a low flying cruise missile like a Tomahawk, since this was reportedly flying in the “near space.”
The video below shows a past test when four MiG-31s, supported by an A-50 Mainstay, reportedly fired and hit a Kh-55 launched by a Tu-95 Bear.
“The cruise missile was destroyed at an altitude of 300 meters above the ground from a distance of 10 kilometers (6.2 miles) from the target,” the Russian MoD said in a statement, quoted by Russian-owned outlet Sputnik News, back in 2015.
In the skies over Iraq, USAF spyplanes, USMC and USN Electronic Attack aircraft work together to deny the Islamic State the ability to communicate.
The image above shows a U.S. Air Force RC-135V/W Rivet Joint, deployed to Al Udeid, Qatar, disconnecting from a USAF KC-10 Extender tanker after receiving fuel near Iraq on Dec. 5, 2016.
Here below you can see a similar photograph of a U.S. Marine Corps EA-6B Prowler electronic attack aircraft belonging to VMAQ-2 from MCAS Cherry Point, temporarily deployed to Incirilik Air Base, Turkey preparing for refueling from a 340th Expeditionary Air Refueling Squadron KC-135 Stratotanker over Iraq, on Nov. 29, 2016.
Although they have a different role and belong to different services both aircraft are often part of the same team, a team whose goal is to shut down Daesh communications.
A Marine EA-6B Prowler peels off after refueling from a 340th Expeditionary Air Refueling Squadron KC-135 Stratotanker over Iraq, Nov. 29, 2016. The 340th EARS extend the fight against Da’esh by delivering 60,000 pounds of fuel to USAF A-10 Thunderbolts, F-15 Strike Eagles and U.S. Marine EA-6B Prowlers. (U.S. Air Force photo by Senior Airman Jordan Castelan)
Little details are available about the missions these HVAs (High Value Assets) carry out together in theater against the Islamic State even though we have been able to collect some interesting details about the way they team up to conduct their secretive tasks.
In fact, as already pointed out by War Is Boring journalist Joseph Trevithick, not only do the USAF Rivet Joints eavesdrop and pinpoint “enemy” radio signals, but they can also disseminate the details about these targets via tactical data-link to other aircraft, including the Prowlers, whose role is to jam those frequencies in order to prevent terrorists from talking one another on the radio or cell phone or using portable transmitters to trigger IEDs (Improvised Explosive Devices).
Robert Hopkins, III, a former RC-135 aircraft commander who flew the S, U, V, W, and X models in the 1980s and 1990s, and author of a book on the type, says that “RJ (Rivet Joint) can share the intelligence they collect with a wide variety of assets, both aerial and ground, to meet their operational requirements.”
Here are some relevant excerpts from his revised book Boeing KC-135: More Than a Tanker to be released by Crécy in February 2017, that explain how this ability to collect and share information with other aircraft has evolved during the years:
“Among the significant improvements included in the Baseline 7 jets (beginning with 62-4131 in late 2001) were derivatives of the Link 16 Joint Tactical Information Display System (JTIDS), including Tactical Digital Links (TDL), formerly Tactical Digital Information Links (TADIL). These provided narrowband communications with other tactical airborne assets as well as the Combined Air Operations Center (CAOC), emphasizing the Rivet Joint’s increasing conventional combat support role. […]
The impressive capabilities of the Rivet Joint in operations in Bosnia, Afghanistan, Iraq, and elsewhere found strong support among combat commands, and led to a broad range of planned enhancements. […]
Baseline 8 jets incorporated improved collection techniques, ‘user friendliness’, and system reliability, as well as automated and faster information dissemination capabilities. They were the first to be extensively ‘connected’ to other airborne and ground-based intelligence, surveillance, and reconnaissance (ISR) and targeting assets. RC-135W 62-4126 was the first Baseline 8 Rivet Joint. It included the satellite-based Remote Extended Aircraft Position Enabling Reachback (REAPER—also noted as Narrowband Reachback, or NABRE) and Network Centric Collaborative Targeting (NCCT) systems.
[…]
Baseline 8 is also able to ‘talk’ to the U-2S and the ground-based, tri-service Distributed Common Ground System (DCGS) processing and dissemination architecture to connect directly with other ISR airplanes such as the Beechcraft RC-12 Guardrail, Boeing E-8 JointSTARs, and US and allied nation Boeing E-3 AWACS.
[…]
A single Rivet Joint, for example, might detect a signal of interest (SOI) but be unable to provide a precise location, especially as the RC-135 moves along its flight path. Using multiple, networked NCCT platforms, however, means that a Rivet Joint, a Guardrail, and a U-2S would all detect the same SOI, and, within seconds, triangulate its precise location and relay that to the CAOC and national targeting agencies.
[…]
Among the latest upgrades to the Rivet Joint fleetis the FAB-T, a ‘second-generation terminal’ system capable of passing low-rate data between air and ground assets. […] First tested in 2011 on NC-135W 61-2666, the FAB-T allowed the rivet joint to connect with a MILSTAR satellite and then transmit data and voice communication with a ground facility. Since then, the data transmission rate has increased, allowing a ‘more secure communication capability to deliver much higher quantities of actionable intelligence products into the hands of the warfighter.’”
A RC-135 Rivet Joint from the 379th Air Expeditionary Wing prepares to move onto the runway before a mission Oct. 21, 2016, at Al Udeid Air Base, Qatar. The RC-135 Rivet Joint is a reconnaissance aircraft that supports theater and national level consumers with near real-time on-scene electronic warfare support, intelligence collection, analysis, and dissemination capabilities. (U.S. Air Force photo/Senior Airman Miles Wilson/Released)
Islamic State fighters rely heavily on commercial radios and cell phones; they use Internet and send emails from their mobile devices, and aircraft from the various services continuously work to intercept all these signals and, if needed, make such communication impossible (by disturbing the comms or attacking the cell towers).
And, sometimes, based on data collected and disseminated by Rivet Joints, “kinetic Electronic Attack platforms” are called in to target high value individuals, preventing them from dispatching orders to other militants. By jamming their cell phones with high-power signals or the old way: by dropping actual ordnance on them (a role that can be fullfilled not only by mission-purpose aircraft or an F-16CJ “Wild Weasel” but also by a more “conventional” bomber.)
As probably done last year by a VAQ-137 Boeing EA-18G Growler, the Electronic Warfare variant of the two-seat F/A-18F Super Hornet (that replaced the EA-6B Prowlers in U.S. Navy service), embarked on USS Theodore Roosevelt supporting OIR that sported the unequivocal High Value Individual cell phone-jamming kill mark.
A new video showing the tests of the T-50 PAK FA’s 9-A1-4071K cannon has appeared on Youtube.
The Sukhoi T-50 PAK FA, Russia’s 5th generation radar-evading jet, has undertaken live testing of its 30 mm cannon.
Footage reportedly filmed at a range outside Moscow shows a test platform fire the 9-A1-4071K cannon, an upgraded version of the GSh-30-1 30 mm automatic cannon developed by the Instrument Design Bureau for High Precision Weapons in 2014.
Based on the data released so far, the gun (that complements a wide array of weapons that the aircraft will be able to carry), 50 kg in weight, can fire at a rate of 1,800 rounds per minute, “the best such performance for this type of weapon around.”
According to the state-run Sputnik news media outlet “another thing that makes the 9-A1-4071K so special is its autonomous water cooling system where the water inside the barrel jacket vaporizes as it heats up during operation. The 9-A1-4071K cannon can fire blast-fragmentation, incendiary and armor-piercing tracer rounds and is effective against even lightly armored ground, sea and aerial targets. The cannon can hit ground targets up to 1,800 meters away and aerial targets at a maximum distance of 1,200 meters. Flight tests of the 9A1-4071K modernized rapid-aircraft cannon were earlier conducted on the Sukhoi SU-27SM multirole jet fighter.”
Expected to enter mass production next year, the Russian Defense Ministry plans to buy at least one squadron of T-50 aircraft in 2018.
Theoretically, exports should start in 2020: Sukhoi is working on T-50 variant (that will embed Indian hardware) for the Indian Air Force, even though the latter in 2014 complained in a report that was given wide publicity, that the stealth jet is too expensive, poorly engineered, equipped with inadequate radar.
And, above all, the Indians criticized the unreliable engines.
The Russians have countered that a new, more powerful engine, expected to replace the old AL-41F engine used by the Su-27 family, is under development.
The brand-new motors, along with improved sensors (and more reliable radar – this, as well, planned), will probably make the T-50 a dangerous enemy for both the F-22 and the F-35, preventing embarrassing episodes like those occurred at MAKS 2011.
Back in the 2011, when PAK-FA debuted, both T-50 prototypes had technical problems. The first one, “51” had structural breaks, while second one, “52” suffered a quite embarrassing flameout at the beginning of its MAKS 2011 performance and was forced to abort take off and display.
H/T to @aldana_jp for sending the video over to us.
Up close and personal with the Raptor pilots fighting Daesh in Iraq and Syria.
Filmed at Al Dhafra airbase in the UAE, this clip shows F-22 pilots with the 90th Fighter Squadron from Joint Base Elmendorf-Richardson, Alaska, preparing to launch at night for a mission in support of Operation Inherent Resolve against ISIS in the modernized U.S. Air Force Raptor multirole jets.
Each Raptor mission against Daesh usually involves multiple aerial refueling operations since the aircraft, to keep their stealthiness, do not carry external fuel tanks.
The Alaskan Raptors belong to the latest available Block and can drop 8 GBU-39 small diameter bombs; they also embed a radar upgrade that enhanced the capabilities of the aircraft in the realm of the so-called “kinetic situational awareness”: although they drop very few bombs against ground targets, the 5th generation stealth planes exploit their advanced onboard sensors, such as the AESA (Active Electronically Scanned Array) radar, to gather details about the enemy targets that they share with other attack planes, such as the F-15E Strike Eagles.
The Raptors of the latest Block can drop GBU-39 small diameter bombs on ISIS targets.
The Raptors deployed to Al Dhafra airbase, UAE, are the most up-to-date F-22As flown by the U.S. Air Force.
Assigned to the 90th Fighter Squadron from Joint Base Elmendorf-Richardson, Alaska, the modernized Raptors made their debut in Operation Inherent Resolve, the air war on the Islamic State, in April, bringing expanded capabilities in the fight against Daesh.
“What our squadron is bringing to the fight now versus some of the previous squadrons, is we have the most up to date software and hardware loads that an F-22 can carry,” said Lt. Col. David, 90th Expeditionary Fighter Squadron commander in a recent Air Force release. “There is a huge advancement in the capabilities of the avionics, the radar system, the sensors and certain electronic features on board the aircraft.”
Although they are rarely requested to attack ground targets, the Alaskan Raptors can now drop 8 GBU-39 small diameter bombs while previously they were limited to carry two 1,000-lb GBU-32 JDAMs (Joint Direct Attack Munitions) in the internal weapon bay: with the latest upgrade they can be tasked for missions which require greater precision.
An initial air-to-surface capability, including that of dropping the GBU-39 (a 250-lb multipurpose, insensitive, penetrating, blast-fragmentation warhead for stationary targets equipped with deployable wings for extended standoff range, whose integration testing started in 2007) had been introduced with the software increment 3.1 back in 2012.
Even though the odds of using an advanced air-to-air missiles over Syria are pretty low, another important addition to the F-22’s payload is the latest generation AIM-9X (already integrated in most of US combat planes since 2003): on Mar. 1, 2016 the 90th Fighter Squadron (FS) officially became the first combat-operational Raptor unit to equip an F-22 with the AIM-9X Sidewinder.
Noteworthy, the AIM-9X will not be coupled to a Helmet Mounted Display (HMD) as the F-22 is not equipped with such kind of helmet that provides the essential flight and weapon aiming information through line of sight imagery (the project to implement it was axed following 2013 budget cuts) but the Raptor will probably benefit of the AIM-9X Block II, that is expected to feature a Lock-on After Launch capability with a datalink, for Helmetless High Off-Boresight (HHOBS): the air-to-air missile will be launched first and then directed to its target afterwards even though it is behind the launching aircraft.
Interestingly, along with the ability to carry “new” weapons, the aircraft were also given a radar upgrade that enhanced the F-22 capabilities in the realm of air interdiction and the so-called “kinetic situational awareness”: as we have often explained in previous articles, the role that the Raptor plays in the campaign is to use advanced onboard sensors, such as the AESA (Active Electronically Scanned Array) radar, to gather valuable details about the enemy targets, then share the “picture” with attack planes as the F-15E Strike Eagles.
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