The US Air Force has decided to pull nearly a third of its C-130 transport aircraft out of service after discovering “atypical cracks” on the wings, Air Mobility Command (AMC) revealed.
After consulting with maintenance and engineering teams, AMC Commander Gen. Maryanne Miller decided that it was necessary to temporarily remove 123 of the Air Force’s 450 available C-130s from service after cracks were discovered on the lower center wing joint, or “rainbow fitting,” during depot maintenance.
“General Miller directed an immediate time compliance technical order inspection to identify and correct any cracking to ensure airworthiness of these C-130 aircraft,” Air Mobility Command said in a statement Aug. 8, 2019. “The Air Force takes the safety of its airmen and aircraft very seriously and is working diligently to identify and repair affected aircraft as soon as possible.”
AMC says that that the removal of more than one hundred C-130s, a workhorse for the Air Force, will not affect overseas operations.
A C-130 Hercules.
(U.S. Air National Guard photo by Maj. Dale Greer)
Each C-130 transport aircraft requires roughly eight hours to fully inspect. If a plane is found to have a problem, it will be repaired; otherwise, it will be returned to service. Eight aircraft have been inspected and returned to service, Task Purpose reported, citing an AMC spokesman.
The latest move, as Air Force Magazine notes, follows a decision earlier this year to ground around 60 C-130s due to propeller issues. The Air Force began looking closely at these issues after a damaged blade caused a C-130 tanker crash that killed 16 US service members; a maintenance depot failed to properly fix the blade.
The Air Force has been struggling as mission capable rates for aircraft have declined in recent years, dropping from 77.9 percent in 2012 to 69.97 percent last year. It recently came to light that only 7 of the Air Force’s 61 B-1 bombers are ready to fly.
This article originally appeared on Business Insider. Follow @BusinessInsider on Twitter.
The Lockheed F-35 Lightning has been drawing a lot of press – and orders from across the world. According to a Lockheed website, 14 countries either have orders in or are looking at buying the Lightning. But another cheaper jet is making waves.
The Saab JAS 39 Gripen is part of a long line of Swedish jets, to include the Draken and Viggen. According to MilitaryFactory.com, the Gripen has a top speed of 1,370 miles per hour, and a maximum range of 1,988 miles. The plane is armed with a 27mm cannon and can carry a wide variety of air-to-air and air-to-surface ordnance. It is a very advanced fourth-generation fighter (arguably falling in the Generation 4.5 category with the Eurofighter Typhoon and the Dassault Rafale).
The F-35, on the other hand, offers stealth technology and very advanced avionics, making it a fifth-generation fighter. MilitaryFactory.com reports it has a top speed of 1,199 miles per hour and a maximum range of 1,379 miles. It also has a wide variety of air-to-air and air-to-surface ordnance, and comes with a GAU-22 25mm cannon.
The F-35B Lightning II is a fifth-generation fighter, which is the world’s first operational supersonic short takeoff and vertical landing aircraft. The F-35B brings strategic agility, operational flexibility and tactical supremacy to III MEF with a mission radius greater than that of the F/A-18 Hornet and AV-8B Harrier II in support of the U.S. – Japan alliance. (USMC photo)
So, why would a country want the Gripen? Two words: Math and money. The F-35 comes in at anywhere from $94 million to $122 million, depending on the variant, according to Lockheed. Now, this price may go down, but it’s still pretty steep. According to GlobalSecurity.org, South Africa paid roughly $1.5 billion for 28 Gripen, which comes to about $53.5 million per jet. That’s a $40 million savings, and you get everything the F-35 can do but stealth.
The F-35C Lightning II — a next generation single-seat, single-engine strike fighter that incorporates stealth technologies, defensive avionics, internal and external weapons, and a revolutionary sensor fusion capability — is designed as the U.S. Navy’s first-day-of-war, survivable strike fighter. (U.S. Navy photo by Andy Wolfe)
But which plane can win in a fight? The Gripen has high performance, but the F-35 can see it easily. The F-35, on the other hand, is much harder for the Gripen to see. Fighter pilots have a saying, “Lose the sight, lose the fight.” That means the Gripen, as impressive as it is, would come out second-best in a fight with the F-35.
Still, it’s better than relying on a MiG or Sukhoi.
An Israeli company unveiled its next-generation digital rifle sight, designed to work more like a smartphone than a high-powered hunting scope, at SHOT Show 2019.
Sensight US Inc., a subsidiary of Sensight Ltd. in Israel, showed off its new smart scope, which features a wide viewscreen, touch-screen operation and a 1.3-20x zoom capability, according to Hanan Schaap, chief executive officer of Sensight Ltd.
“It’s a very sophisticated system,” Schaap said, but added, “If you know how to work with a smartphone, you can work with this. It’s that simple.”
The sight features dual cameras that operate at 1080p at 60fps and can record and stream to iOS and Android systems, he said.
With the swipe of a finger, the shooter can zoom out 3x, 5x, 8x, 12x, 16x and 20x. Range adjustments and reticle type can also be selected with a simple touch.
“You can choose different reticles. … I can choose different colors, different shapes — an endless variety of reticles,” Schaap said.
The new sight has a ballistic calculator, 3D gyroscope and GPS.
The sight is also “suitable for any light condition,” Schaap said, first describing the low-light mode that “gives you an extra 20-to-25 minutes at dusk.”
“When you go to full darkness, you can remove the [infrared] filter so you can work with an IR illuminator to see in full darkness,” he said.
The main battery powers the sight for eight hours, but there is also an external powerpack that snaps on for an additional 12 hours of operation.
The first generation of the new sight is scheduled to be ready sometime in April or May 2019 for the “low price” of about id=”listicle-2627543725″,000, Schaap said, adding that future generations will get more sophisticated.
“In the first generation, we want to make it simple enough for people to use,” he said.
For now, the sight will be geared toward calibers such as .308, .300 Win. Mag., and .338 magnum, Schaap said.
As high-tech as the new sight is, Sensight is not marketing it for military use.
“We are looking at recreational shooters in general; we are not aiming now for military,” Schaap said. “The sight is a tool, an instrument that will help hunters and target shooters enjoy their shooting experience more.”
This article originally appeared on Military.com. Follow @militarydotcom on Twitter.
The US Army in Europe has made a number of changes in recent months as part of a broader effort by the Pentagon to prepare for a potential fight against an adversary with advanced military capabilities, like Russia or China.
The latest move came on November 28, when the Army activated the 5th Battalion, 4th Air Defense Artillery Regiment, in a ceremony at Shipton Barracks in Ansbach, near the city of Nuremberg in southern Germany.
The battalion has a long history, serving in artillery and antiaircraft artillery roles in the War of 1812, the Civil War, World War II, and the Vietnam War. It was deactivated in the late 1990s, after the US military withdrew from the Cold War.
Lt. Col. Todd Daniels, commander of the 5th Battalion, 4th Air Defense Artillery Regiment, uncovers the battalion colors during the activation and assumption of command ceremony at Shipton Kaserne, Germany, on November 28, 2018.
(U.S. Army photo by Sgt. 1st Class Jason Epperson)
Its return brings new and important short-range-air-defense, or SHORAD, capabilities, according to Col. David Shank, the head of 10th Army Air and Missile Defense Command, of which the new unit is part.”Not only is this a great day for United States Army Europe and the growth of lethal capability here. It is a tremendous step forward for the Air Defense Enterprise,” Shank said at the ceremony.
The battalion will be composed of five battery-level units equipped with FIM-92 Stinger missiles, according to Stars and Stripes.
Three of those batteries will be certified before the end of the summer, Shank said, adding that battalion personnel would also “build and sustain a strong Army family-support program, and become the subject-matter experts in Europe for short-range-air-defense to not just the Army, but our allies.”
Those troops “will have a hard road in from of them,” Shank said.
Stinger missiles are fired from the Avenger Air Defense System.
(U.S. Air Force photo by Samuel King Jr.)
Air Defense Artillery units were for a long time embedded in Army divisions, but the service started divesting itself of those units in the early 2000s, as military planners believed the Air Force could maintain air superiority and mitigate threats posed by enemy aircraft.
But in 2016, after finding a gap in its SHORAD capabilities, the Army started trying to address the shortfall.
In January, for the first time in 15 years, the US Army in Europe began training with Stinger missiles, a light antiaircraft weapon that can be fired from shoulder- and vehicle-mounted launchers.
Lightweight, short-range antiaircraft missiles are mainly meant to defend against ground-attack aircraft, especially helicopters, that target infantry and armored vehicles. Unmanned aerial vehicles — used by both sides in the conflict between Russia and Ukraine — are also a source concern.
A 35th Air Defense Artillery Brigade member loads a Stinger onto an Avenger Air Defense System.
(U.S. Army photo by Capt. Rachael Jeffcoat)
US Army Europe has been relying on Avengers defense systems and Stinger missiles from Army National Guard units rotating through the continent as part of Operation Atlantic Resolve, which began in 2014 as a way to reassure allies in Europe of the US commitment to their defense.
Guard units rotating through Europe have been training with the Stinger for months, but the 5th Battalion, 4th Air Defense Artillery Regiment, will be the only one stationed in Europe that fields the Avenger, a short-range-air-defense system that can be mounted on a Humvee and fires Stinger missiles.
The Army has also been pulling Avenger systems that had been mothballed in order to supply active units until a new weapon system is available, according to Defense News, which said earlier this year that Army Materiel Command was overhauling Avengers that had been sitting in a Pennsylvania field waiting to be scrapped.
A U.S. Army Avenger team during qualification in South Korea, October 24, 2018.
(U.S. Army photo by Capt. Marion Jo Nederhoed)
The Army has also fast-tracked its Interim Short Range Air Defense (IM-SHORAD) program to provide air- and missile-defense for Stryker and Armored Brigade Combat Teams in Europe.
The Army plans to develop IM-SHORAD systems around the Stryker, equipping the vehicle with an unmanned turret developed by defense firm Leonardo DRS. The system includes Stinger and Hellfire missiles and an automatic 30 mm cannon, as well as the M230 chain gun and a 7.62 mm coaxial machine gun. It will also be equipped with electronic-warfare and radar systems.
Final prototypes of that package are expected in the last quarter of 2019, according to Defense News, with the Army aiming to have the first battery by the fourth quarter of 2020.
The activation of the 5th Battalion, 4th Air Defense Artillery Regiment, is part of a broader troop increase the Army announced earlier this year, saying that the increase in forces stationed in Europe permanently would come from activating new units rather than relocating them from elsewhere.
The new units would bring 1,500 soldiers and their families back to Europe. (Some 300,000 US troops were stationed on the continent during the Cold War, but that number has dwindled to about 30,000 now.)
A member of the Florida National Guard’s 3rd Battalion, 265 Air Defense Artillery Regiment, uses a touchscreen from the driver’s seat of an Army Avenger.
(U.S. Air Force photo by Samuel King Jr.)
In addition to the short-range-air-defense battalion and supporting units at Ansbach, the new units will include a field-artillery brigade headquarters and two multiple-launch-rocket-system battalions and supporting units in Grafenwoehr Training Area, and other supporting units at Hohenfels Training Area and the garrison in Baumholder.
The activations were scheduled to begin this year and should be finished by September 2020, the Army said in a statement.
“The addition of these forces increases US Army readiness in Europe and ensures we are better able to respond to any crisis,” the Army said.
This article originally appeared on Business Insider. Follow @BusinessInsider on Twitter.
Rifle marksmanship is one of the handful of skills that everyone in the military needs to master. It doesn’t matter if you’re an infantryman, a special operator, or an admin clerk in the Reserves, everyone needs to master the fundamentals of marksmanship.
Being well-versed in marksmanship is what makes all of America’s warfighters, without exception, deadly in combat. If that wasn’t enough of an incentive, it’s also the one badge that every troop, service-wide, wears to signify their combat prowess. The marksmanship badge holds enough weight that a young private with expert could easily flex on a senior NCO with just a pizza box.
Here’s what you need to know:
These fundamentals can be applied to stress shoots, too.
(U.S. Army photo by Staff Sgt. Elvis Umanzor)
Don’t: overthink it
There are just four things (outside of the obvious safety concerns) to worry about while you’re firing a weapon. These four basic components are drilled into every Army recruit’s head while at basic and they’ve been incorporated into marching cadences: steady, aim, breathe, fire. This should be your mental checklist before you take a shot.
Are you and the weapon in a steady position? Are the sights properly aligned to ensure accuracy? Are you breathing normally and timing your shots accordingly? Is your finger comfortably aligned with your trigger so you can pull it straight back?
Hey, man. It’s cheap, you can practice the fundamentals of marksmanship, and it’s fun.
(Screengrab via YouTube / ThePinballCompany)
Do: practice as much as you can
There are countless drills that you can do if your armorer lets you draw your weapon. For example, there’s the famous “washer and dime” drill. You can test how well you’re following the 4 fundamentals mentioned above by placing a single washer or dime on the barrel of an unloaded rifle. If your stance is good, your aiming isn’t jerky, your breathing is regular, and your trigger squeeze is solid, the balancing dime shouldn’t fall when you pull the trigger.
In the absence of your rifle, as odd as it sounds, you can still get some “range” time at your local arcade. If you spend your entire attention on the four fundamentals, playing some coin-operated shooter video game can be great practice. You’ll have to worry less about aiming, though — those machines are almost always misaligned.
Spend a little extra time getting everything just right.
(U.S. Marine Corps photo by Cpl. Jericho Crutcher)
Don’t: rush zeroing
No two people will have the same sight picture, so you need to zero your almost nearly every time. Even something as slight as adjusting where you place your cheek against the buttstock will readjust the sight picture.
Even if you’ve spent the entire afternoon getting everything to surgeon-level precision, do it again. Endure whatever asschewing you’ll get from higher ups and belittlement from your peers because you’re not hurrying along.
The only terrible part of the day is having to police call the ammo.
(U.S. Marine Corps photo by Lance Cpl. Tiffany Edwards)
Firing a weapon is meditative for some people. Leave your stresses and worries at the bleachers because, right now, it’s just you and your firearm. In that brief moment when the range safety calls your lane hot, all you need to think about is hitting the target.
Don’t be intimidated by your weapon. You’re almost certainly safe if you’re on the opposite side of the barrel. There will be a bit of a kick when you fire — that’s normal. If you start anticipating the kick, you’re going to screw up all the four fundamentals because you’ll be more worried about how your weapon nudges your shoulder.
Enjoy the fact that you’re not spending your own money on ammunition or range time. If you miss a target, who cares? Don’t waste ammo trying to shoot that target a second time. The Army’s rifle qualification is 40 targets with 40 rounds. If you fire and the target doesn’t go down, don’t spend two more rounds trying to hit it or else you just screwed yourself out of two more potential hits.
Hate to sound like that guy, but someone else can and will take care of it. Don’t stress.
(U.S. Navy photo by Petty Officer 1st Class Peter Lewis)
Don’t: panic if your weapon jams
There’re plenty of different ways that your weapon might act up, preventing you from putting more rounds down range. The easiest fix is simply slapping the bottom of your lowest-bidder magazine to ensure that the next round enters the chamber.
If it’s something that takes more than a few seconds to fix yourself, simply clear your weapon and place it on the sandbags. Explain what happened to the nearest range safety officer and you’ll probably get another crack at qualifications next round.
There is a method to the madness. If your NCO is having you clean them days or weeks after the range (and you already cleaned them then), they’re just looking for busy work.
(U.S. Air Force photo by Margo Wright)
Do: clean your weapon afterwords
There’s a very good reason that they tell you to clean every single crevice of your rifle every time. A rifle is made up of many tiny, precise mechanisms that need to be perfectly clean and in order to avoid any kind of malfunction. A small carbon build-up can wreck the chamber of a rifle worse than any kind of mud.
On the bright side, while you’re taking your weapon apart and cleaning it thoroughly, you’ll grow a deeper understanding of how these little parts all work in relation to one another. Before you know it, you’ll think of your rifle as an extension of your body.
For the first time ever, a team of researchers successfully developed and tested networked acoustic emission sensors that can detect airframe damage on conceptual composite UH-60 Black Hawk rotorcraft.
Researchers with the U.S. Army Research Laboratory and the U.S Army Aviation and Missile Research, Development, and Engineering Center said their discovery opens up possibilities for new on-board features that could immediately alert the flight crew to the state of structural damage, like matrix cracking and delamination, as they occur, giving the crew greater opportunity to take corrective actions before catastrophic failure.
ARL has been studying several possible alternatives to rotorcraft airframe health monitoring. This effort, which began almost two years ago, makes a strong case for integrated real-time damage sensing methodologies on future airframe structures. The sensing method can be used to reliably detect and locate the initiation and growth of damage that may occur during service.
“Future Army airframe structures are required to be lighter, safer, and ultra-reliable,” said Dr. Mulugeta Haile, research aerospace engineer. “To achieve these, the Army must adopt a combined strategy of implementing advanced structural design methods, improved structural materials, and integrated damage-sensing and risk-prediction capabilities.”
He said the team turned to acoustic emission tests because other methods, such as ultrasonic and radiography, require an external energy source in the form of a directed wave.
“The external energy has the undesirable effect of interfering with other systems of the aircraft. In addition, other methods are not as good as AE in detecting early damage,” he said.
Acoustic emission sensing is a passive, non-destructive technique for detection of damage in the very early stage, and long before the structure experiences catastrophic failure. Unlike other methods, acoustic emission detects damage in real-time (or at the instant the damage is happening). The fact that AE is passive means that it does not require an external energy to detect damage. It relies on the energy that is initiated within the structure, Haile explained.
“The novelty of the current work is that we introduced several new concepts on wave acquisition control and signal processing to recover damage-related information in networked acoustic emission sensors,” Haile said. “The Eureka moment was when the sensing network consistently identified and located the initiation and progression of damage during a prolonged fatigue test that lasted over 200,000 cycles — a feat that has never been achieved before.”
The ARL sensing network is composed of several lightweight transducers encapsulated in 3D-printed, non-intrusive sensor mounts. Sensors of the network are optimally distributed in multiple zones to maximize coverage as well as probability of damage detection. The data acquisition process is embedded with a software-controllable timing parameter to reject reflections of a direct wave, as well as waves coming from non-damage related events. Meanwhile, the signal processing algorithm is augmented with a layer of adaptive digital filters to minimize effects of signal distortion during location analysis.
Dr. Jaret Riddick, director of the Vehicle Technology Directorate, along with Haile, Nathaniel Bordick, and other ARL partners, collaborated to elucidate detailed mechanisms for full-scale damage detection in complex rotorcraft structures using the distributed sensor architecture. Key to the technique is the development of signal distortion control parameters, acquisition timing control, and 3D-printed sensor capsules.
“The downtime due to routine inspection and maintenance represents the major fraction of the life cycle cost of Army platforms, because we are not using the platform and we have to pay for inspection, which, in most cases, reveals no damage. So, the idea is to integrate a reliable damage sensing network and perform maintenance only when necessary,” Riddick said.
Currently, the Army sustains its fleet using phase maintenance paradigm, which is a periodic calendar-based practice that requires inspection and maintenance at fixed time intervals. The process is highly inefficient, costly and entails extended downtime. The newly developed sensing network will enable condition-based maintenance or maintenance on demand. It has the potential to drastically cut the life cycle cost of Army vehicles. The work also supports the Army’s long term vision of maintenance-free aircrafts.
“Large-scale AE monitoring is a data-intensive process with several million hits being received by each transducer per flight,” Halle said. “This puts a higher load on the internal bus and circuitry of any data acquisition hardware. In general, most hits are not related to damage. Rather, they are noises from moving parts, such as the clicking or rubbing noises of fasteners, panel connections, and vibrations from other non-damage related sources. Unwanted AE hits also arise due to reflections of an already received and processed AE wave. The challenge is to develop a system which is sensitive only to damage related hits and insensitive to all other hits.”
“Most of the available AE-based structural health monitoring is for simple plate-like structures, despite most airframe structures not being simple plates,” Bordick said. “Not much has been done on integrated full-scale airframe health monitoring using AE. The problem is quite complex. I’m glad that we were able to successfully develop and demonstrate the sensing network.”
The U.S. Army Research Laboratory, currently celebrating 25 years of excellence in Army science and technology, is part of the U.S. Army Research, Development, and Engineering Command, which has the mission to provide innovative research, development, and engineering to produce capabilities that provide decisive overmatch to the Army against the complexities of the current and future operating environments in support of the joint warfighter and the nation. RDECOM is a major subordinate command of the U.S. Army Materiel Command.
The strike on Shayrat Air Base was intended to take out a number of targets, but one plane in particular was top of the list: The Su-22 Fitter.
According to Scramble.nl, two squadrons of this plane were based at the Shayrat air base that absorbed 59 T-LAMs. But why was this plane the primary target, as opposed to the squadron of MiG-23 Floggers? The answer is that the versions of the MiG-23 that were reportedly based there were primarily in the air-to-air role. The MiG-23MLD is known as the “Flogger K” by NATO. The two squadrons of Su-22 Fitters, though, specialized in the ground attack mission.
According to militaryfactory.com, the Su-22 is one of two export versions of the Su-17, which first entered service in 1969. Since then, it has received progressive improvements, and was widely exported to not only Warsaw Pact countries but to Soviet allies in the Middle East and to Peru. The Russians and French teamed up to modernize many of the Fitters still in service – and over 2,600 of these planes were built.
According to the Encyclopaedia of Modern Aircraft Armament, the Su-17/Su-20/Su-22 Fitter has eight hardpoints capable of carrying up to 11,000 pounds of munitions. It also has a pair of MR-30 30mm cannon. It is capable of a top speed of 624 knots, according to militaryfactory.com.
The Fitter has seen a fair bit of combat action, including during the Iran-Iraq War, the Yom Kippur War, Desert Storm, Afghanistan, and the Russian wars in Chechnya.
Recently, it saw action in the Libyan Civil War as well as the Syrian Civil War.
While it has performed well in ground-attack missions, it was famously misused by then-Libyan dictator Muammar Qaddafi to challenge U.S. Navy F-14 Tomcats over the Gulf of Sidra in 1981. Both Fitters were shot down after an ineffectual attack on the Tomcats.
During Desert Storm, the Iraqi Air Force lost two Su-22s, then two more during Operation Provide Comfort.
The Fitter did get one moment in the cinematic sun, though. In the Vin Diesel action movie “XXX,” two Czech air force Fitters made a cameo during the climactic sequence.
Ever get sore thumbs from loading mag after mag? How about an easier solution that saves not only effort but time as well? Butler Creek has you covered with their EML. This electronic mag loader can hold up to sixty rounds of ammo, and gives shooters the ability to load anywhere from one to forty rounds in their magazine at a time. For speed, efficiency, and thumb relief, don’t pass up an opportunity to check this mag loader out!
Movies and TV have shown audiences multiple aspects of the tactics and maneuvering used to invade a bad guy’s dwelling (though the accuracy is often suspect).
While stateside police commonly use massive battering rams and huge crowbars, deployed troops that are constantly on the move find it difficult to lug around heavy breaching tools.
So, what do our ground forces use in order to open the only thing that separates them from their objective? Well, we’re glad you asked. Former Army Green Beret Karl Erickson will break down how to kick in a door like a true operator.
The US Air Force is now accelerating a massive AI push to cyber-harden networks, improve weapons systems, and transform functions of large combat air platforms such as the B-2, F-15 and F-35, service officials said.
“The Air Force has over 600 projects incorporating a facet of artificial intelligence to address various mission sets,” Capt. Hope Cronin, Air Force spokeswoman, told Warrior Maven.
While AI can of course massively expedite data consolidation, cloud migration and various kinds much-needed cybersecurity functions, it is increasingly being applied more broadly across weapons systems and large platforms.
AI performs a wide range of functions not purely restricted to conventional notions of IT or cyberspace; computer algorithms are increasingly able to almost instantaneously access vast pools of data, compare and organize information and perform automated procedural and analytical functions for human decision-makers in a role of command and control.
When high-volume, redundant tasks are performed through computer automation, humans are freed up to expend energy pursuing a wider range of interpretive or conceptual work.
For the F-35, B-2 and F-15, rapid data-base access, organizing information and performing high-volume procedural functions are all decided advantages of AI applications. Algorithms, for example, are increasingly able to scan, view and organize targeting, ISR and sensor input such as navigation information, radar warning information, images or video.
F-35A off the coast of Northwest Florida.
(U.S. Air Force photo by Master Sgt. Donald R. Allen)
The F-35, for instance, uses early iterations of artificial intelligence to help acquire, organize and present information to the pilot on a single screen without much human intervention. Often referred to as easing the cognitive burden upon pilots, the effort is geared toward systematically presenting information from a range of disparate sensors on a single screen. The F-35s widely-discussed sensor fusion, for example, is evidence of this phenomenon, as it involves consolidating targeting, navigation and sensor information for pilots.
An F-35 computer system, Autonomic Logistics Information System, involves early applications of artificial intelligence wherein computers make assessments, go through checklists, organize information and make some decisions by themselves — without needing human intervention.
The computer, called ALIS, makes the aircraft’s logistics tail more automated and is able to radio back information about engine healh or other avionics.
A single, secure information environment provides users with up-to-date information on any of these areas using web-enabled applications on a distributed network, a statement from ALIS- builder Lockheed Martin says.
ALIS serves as the information infrastructure for the F-35, transmitting aircraft health and maintenance action information to the appropriate users on a globally-distributed network to technicians worldwide, the statement continues.
As a result, F-35 pilots will be able to control a small group of drones flying nearby from the aircraft cockpit in the air, performing sensing, reconnaissance and targeting functions.
At the moment, the flight path, sensor payload and weapons disposal of airborne drones such as Air Force Predators and Reapers are coordinated from ground control stations.
For instance, real-time video feeds from the electro-optical/infrared sensors on board an Air Force Predator, Reaper or Global Hawk drone could go directly into an F-35 cockpit, without needing to go to a ground control station. This could speed up targeting and tactical input from drones on reconnaissance missions in the vicinity of where a fighter pilot might want to attack. In fast-moving combat circumstances involving both air-to-air and air-to-ground threats, increased speed could make a large difference.
The prospect of using advanced algorithms and on-board computers to quickly perform a range of aircraft functions, while enabling human decision makers in a role of command and control, is further explored in a research paper from a London-based think tank called “Chatam House – Royal Institute of International Affairs.”
The 2017 essay, titled “Artificial Intelligence and the Future of Warfare,” explains how fighter and bomber pilot “checklists” can be enabled by AI as “cognitive-aiding tools.”
“…pilots rely significantly on procedures to help them manage the complexity of various tasks. For instance, when a fire-light illuminates or another subsystem indicates a problem, pilots are trained to first stabilize the aircraft (a skill) but then turn to the manual to determine the correct procedure (rule following). Such codified procedures are necessary since there are far too many solutions to possible problems to be remembered,” the Chatam House paper writes.
The Air Force’s stealthy B-2 bomber is yet another example; the aircraft is receiving a new flight management control processor which increases the performance of the avionics and on-board computer systems by about 1,000-times, Air Force officials said.
The upgrade is a quantum improvement over the legacy system, providing over a thousand times the processor throughput, memory, and network speed, according to senior Air Force leaders. The new processor will help automated navigation programs and expedite the B-2s “fly-by-wire” technology — all of which are designed to enable a pilot to expend energy upon the most pressing combat tasks with less intervention.
A B-2 Spirit soars after a refueling mission over the Pacific Ocean.
(U.S. Air Force photo by Staff Sgt. Bennie J. Davis III)
The B-2 Flight Management Control Processor Upgrade, also known as the Extremely High Frequency, Increment 1 processor upgrade, completed the final aircraft install in August 2016, Air Force officials told Warrior Maven in 2017.
Faster, more capable processors will enable the aircraft’s avionics, radar, sensors, and communications technologies to better identify and attack enemy targets. The sensor-to-shooter time will be greatly reduced, allowing the B-2 to launch weapons much more effectively, therefore reducing its exposure to enemy attacks.
Although built in the 1980s, the B-2 is a digital airplane which uses what’s called a “glass cockpit” for flight controls and on-board systems.
The upgrade involves the re-hosting of the flight management control processors, the brains of the airplane, onto much more capable integrated processing units. This results in the laying-in of some new fiber optic cable as opposed to the mix bus cable being used right now — because the B-2’s computers from the 80s are getting maxed out and overloaded with data, Air Force officials told Warrior.
Improved Processing capacity for the B-2 will enable the upcoming integration of digital nuclear weapons, such as the B61-12, service officials explained.
Also, the Air Force F-15 is now being engineered with the fastest jet-computer processor in the world, called the Advanced Display Core Processor, or ADCPII.
“It is capable of processing 87 billion instructions per second of computing throughput, translating into faster and more reliable mission processing capability for an aircrew,” Boeing spokesman Randy Jackson told Warrior in 2017.
This article originally appeared on Warrior Maven. Follow @warriormaven1 on Twitter.
Russia is (by land mass), the largest country in the world. At one point in its history, it was home to the largest army in the world, the largest stockpile of nuclear warheads, and… the largest submarines ever built.
Known to the West as the Typhoon class, and to Russians as “Akula” (shark), these black and red beasts were created as a counter to the American Ohio class, carrying dozens of nuclear-tipped ballistic missiles as a deterrent during the Cold War.
At 574 feet long and 75 feet in breadth, these these 25,000 ton monsters were actually larger and wider than the American vessels they were created to compete with.
Essentially tasked with inflicting a nuclear apocalypse upon the West if the Cold War got hot, the Typhoons were given a fairly unique design to keep the boats rugged and survivable — should either an accident or an anti-submarine attack occur — so that they could still carry out their incredibly destructive mission.
Inside the Typhoon’s hulking mass existed a pair of longer pressure hulls from older Delta-class ballistic missile submarines and three more smaller hulls placed around the boat to protect other critical points like engineering spaces and the torpedo rooms. Should a breach occur — whether by collision or attack — the crew inside the other pressure hulls would be safe and the sub would still be operational.
Typhoons carry their missiles in front of their gigantic (and almost comically oversized) sail instead of behind it, as Delta-class and American Ohio-class boats do.
Two nuclear reactors give these warships the power they need to operate, allowing for a maximum speed of around 27 knots underwater (31 mph).
Instead of constantly traversing the world’s oceans, Typhoons were built to sit under the Arctic Circle for months at a time, waiting to punch through the ice in order to launch their deadly payloads of nuclear-tipped missiles.
Because of their designated operating locations, these subs could often escape harassment by American and British hunter/killer submarines constantly prowling around the Atlantic Ocean looking for Soviet warships to mess with.
Because of the length and duration of their missions, Typhoons were designed with crew comfort in mind. In fact, the accommodations aboard a Typhoon were so luxurious that sailors in the Soviet (and later, Russian) navy nicknamed these gargantuan vessels “floating Hiltons.”
Instead of utilitarian steel furniture with minimal padding, a Typhoon’s interior features wooden-paneled walls, comfortable padded chairs, raised ceilings and full-sized doorways, and a fully-stocked gym. Unlike any other submarine ever built, each Typhoon also came with a unique and somewhat enviable feature – a lounge for sailors, including a swimming pool and a sauna.
You didn’t misread that – Typhoons were actually built with small two-foot-deep swimming pools to improve crew morale on long deployments, along with saunas and a lounge area with plush rocking chairs. Televisions (a luxury in the Soviet Navy) were also set up throughout the boat, playing Soviet movies, television shows and propaganda for the crew’s entertainment.
But just as these behemoth war machines entered service with the Soviet Navy, their time rapidly began to wind down. Of the seven planned Typhoons, six were built throughout the 1980s and retired less than 10 years later in the 1990s.
The Russian government simply couldn’t afford to keep fielding the largest missile submarines they (or any other country in the world) had ever built.
In the 1990s, the US and Canadian governments began offering financial incentives to Russia, after the fall of the Soviet Union, to retire a number of their nuclear deterrent warships. Among the many sent to the wreckers were three of the six Typhoons, with the other three staying in service.
Today, only one Typhoon remains active while two others have been placed in reserve. The sole active sub, the Dmitriy Donskoy, serves as a test platform for Russia’s newest submarine-launched cruise missiles, though its days are also numbered with the advent of newer Russian Borei-class ballistic missile subs.
The other two Typhoons currently held in reserve — the Arkhangelsk and the Severstal — will likely be scrapped between 2018 and 2019, with the Donskoy following not too long after, ending the story of the largest nuclear ballistic missile submarines ever built.
When the Great War began in 1914, the armies on both sides brought new technologies to the battlefield the likes of which the world had never seen. The destruction and carnage caused by these new weapons was so extensive that portions of old battlefields are still uninhabitable.
World War I saw the first widespread use of armed aircraft and tanks as well as the machine gun. But some of the weapons devised during the war were truly terrifying.
The flamethrower was especially useful because even just the idea of being burned alive drove men from the trenches into the open where they could be cut down by rifle and machine gun fire.
The terrible nature of the flamethrower, Flammenwerfer in German, meant that the troops carrying them were marked men. As soon as they were spotted, they became the targets of gunfire. Should one happen to be taken prisoner, they were often subjected to summary execution.
The British went a different way with their flamethrowers and developed the Livens Large Gallery Flame Projector. These were stationary weapons deployed in long trenches forward of the lines preceding an attack. The nozzle would spring out of the ground and send a wall of flame 300 feet in the enemy’s direction.
These were used with great effectiveness at the Somme on July 1, 1916 when they burned out a section of the German line before British infantry was able to rush in and capture the burning remnants.
2. Trench Knife
Even with the advent of the firearm, hand-to-hand combat was still a given on the battlefield. However, with the introduction of trench warfare, a new weapon was needed in order to fight effectively in such close quarters. Enter the trench knife.
The most terrifying trench knives were developed by the United States. The M1917, America’s first trench knife, combined three killing tools in one. The blade of the weapon was triangular which meant it could only be used for stabbing, but it inflicted terrible wounds.
Triangular stab wounds were so gruesome that they were eventually banned by the Geneva Conventions in 1949 because they cause undue suffering. The knife also had a “knuckle duster” hand guard mounted with spikes in order to deliver maximum damage with a punching attack. Finally, the knife had a “skull crusher” pommel on the bottom in order to smash the enemy’s head with a downward attack.
Along with the trench knife the Allies developed other special weapons for the specific purpose of trench raiding. Trench raiding was the practice of sneaking over to enemy lines’ and then, as quietly as possible, killing everyone in sight, snatching a few prisoners, lobbing a few explosives into bunkers and high-tailing it back to friendly lines before the enemy knew what hit them.
As rifles would make too much noise, trench raiding clubs were developed. There was no specific design of a trench raiding club, though many were patterned after medieval weapons such as maces and flails.
Others were crude handmade implements using whatever was around. This often consisted of heavy lengths of wood with nails, barbed wire, or other metal attached to the striking end to inflict maximum damage.
When Americans entered the fight on the Western Front they brought with them a new weapon that absolutely terrified the Germans: the shotgun. The United States used a few different shotguns but the primary weapon was the Winchester M1897 Trench Grade shotgun. This was a modified version of Winchester’s model 1897 with a shortened 20″ barrel, heat shield, and bayonet lug.
The shotgun, with 6 shells of 00 buck, was so effective that American troops referred to it as the “trench sweeper” or “trench broom.”
The Germans, however, were less than pleased at the introduction of this new weapon to the battlefield. The effectiveness of the shotgun so terrified the Germans that they filed a diplomatic protest against its use. They argued that it should be outlawed in combat and threatened to punish any Americans captured with the weapon.
America rejected the German protest and threatened retaliation for any punishment against American soldiers.
5. Poison Gas
Of course any list of terrifying weapons of war has to include poison gas; it is the epitome of horrible weapons. Poisonous gas came in three main forms: Chlorine, Phosgene, and Mustard Gas.
The first poison gas attack was launched by the Germans against French forces at Ypres in 1915. After that, both sides began to develop their chemical weapon arsenals as well as countermeasures.
The true purpose of the gas was generally not to kill — though it certainly could — but to produce large numbers of casualties or to pollute the battlefield and force the enemy from their positions.
Gas also caused mass panic amongst the troops because of the choking and blindness brought on by exposure causing them to flee their positions. Mustard gas was particularly terrible because in addition to severely irritating the throat, lungs, and eyes, it also burned exposed skin, creating large painful blisters.
Though artillery had been around for centuries leading up to WWI, its use on the battlefields of Europe was unprecedented. This was because of two reasons.
Second, because the world had never seen such concentrations of artillery before.
Artillery shells were fired in mass concentrations that turned the earth into such a quagmire that later shells would fail to detonate and instead they would simply bury themselves into the ground. Massive bombardments destroyed trenches and buried men alive.
Artillery bombardments were so prolific that a new term, shell shock, was developed to describe the symptoms of survivors of horrendous bombardments.
The LM002 was the third attempt by the supercar manufacturer to make an off-road vehicle. The first was the Cheetah in the 1970s with a rear-mounted Chrysler V8 engine. Next was the LM001 prototype, which also featured a rear-mounted V8 engine. However, both of these vehicles were scrapped because of weight balance problems, according to LamboCARS.
By 1982, Lamborghini finally got it right by installing the same V12 engine used in the Countach to the front of the vehicle, giving the LM002 450 horsepower and agile responsiveness. Finally the vehicle was ready for prime time, but the military never warmed up to it.
Since it couldn’t attract the military, Lamborghini did the next best thing by turning it into a luxury vehicle. The LM002 was made-to-order with fine leather, a blasting Alpine sound system, and air conditioning. Notable celebrity owners were Sylvester Stallone, Tina Turner, Eddie Van Halen, and Mike Tyson. Infamous owners included kingpin Pablo Escobar, Uday Hussein, and Muammar Gadafi, according to LamboCARS.
The LM002 was the last time Lamborghini had an SUV. Its latest concept – the URUS – was designed as a luxury SUV from inception, unlike the LM002.