In March 2019, the Marine Corps stood down its last squadron of EA-6B Prowlers. This stand down marked the end of the Prowler’s active service in the U.S. military. The tactical electronic warfare jamming bird first started its career in 1971, making it one of the oldest airframes still flying. Well, until Mar. 8th. 2019, it will be.
It will be replaced by the advanced capabilities of the F-35 Joint Strike Fighter, just like the F-35 replaced the F/A-18 Hornet and the AV-8B Harrier.
It fought everyone from Ho Chi Minh to ISIS
First introduced to southeast Asia in 1972, the Prowler has been there with the Air Force, Navy, and Marine Corps through thick and thin, deploying more than 70 times and flying more than 260,000 hours.
Its victories were flawless
Not one Prowler has ever been lost to enemy action. Many have tried; North Vietnam, Libya, Iraq (a few times!), Iran, the Taliban, Panama, no one has been able to take down any of the 170 Prowlers built to defend America. Unfortunately, 50 of those were lost due to accidents and mishaps.
An EA-6B Prowler at Bagram Air Base, Afghanistan.
Its job was to jam enemy radar
But what to do when there’s no enemy radar to jam? It still blocks radio signals and weapon targeting systems. The Prowler was a perfect addition to the Global War on Terror, as it also could block cell signals and garage door openers, keeping troops on the ground safe from many remotely-triggered improvised explosive devices.
It’s the longest serving tactical jet
F-16? Never met her. The service life of the Prowler beats that of even the F-16, making it the longest-serving tactical fighter jet in the history of the U.S. military.
The Prowler helped ice Bin Laden
Sure, the SEALs had a specially-built top-secret helicopter to help them sneak into Pakistan. But it was an EA-6B Prowler that made sure the area around Osama bin Laden’s compound was free and clear of any pesky radar or electronic signals that might give the operation away.
An unmanned surface vehicle suddenly appeared on the Potomac River Test Range and, much like the ospreys that inhabit the area, it was on a mission to traverse the river – autonomously.
Nearby, an osprey watched the unusual sight from its nest as an array of autonomous guns and missile systems were lined up on a pier.
Distinguished visitors gathered on that pier to see the sight – a demonstration of Textron Systems’ Common Unmanned Surface Vehicle. They listened intently as Navy and corporate leaders discussed their collaboration to weaponize a CUSV capable of multiple missions.
“The reason we collaborate is because we as a nation find ourselves in a situation where we can no longer take time to deliver capability to our warfighters,” John Fiore, Naval Surface Warfare Center Dahlgren Division technical director, told government, defense contractors, and military personnel at the March 28, 2018 event. “We as a warfare center and you as industry are tasked to make sure our Sailors and Marines can deploy, execute their mission, and come home safely to their families and loved ones.”
NSWCDD engineers explained how the weapon technologies they developed will be evaluated for integration with Textron Systems’ CUSV to create a new modular autonomous weapon system to impact the Fleet’s maritime operations. There is currently no program or acquisition in place to implement these efforts, as they are in the early development stages without funding or planning to implement into the Fleet.
“Our first project is what we are calling a Surface and Expeditionary Warfare Mission Module which will consist of our engagement technology paired with our Battle Management System (BMS) controlling a Longbow Hellfire Missile,” said Chris Nerney, NSWCDD technical program manager for Unmanned Systems. “The idea is a mission package that could slide into the CUSV modular mission bay and provide a direct and indirect fire capability.”
(U.S. Navy photo)
The Navy and Textron Systems plan to prove the developmental concept that combines direct and indirect fire capability with a gunfire demonstration in late 2018, followed by a live missile shoot in 2019.
“We are creating a modular surface and expeditionary warfare payload with a gun and a missile weapon system to be evaluated for integration onto the common unmanned surface vehicle,” said Kevin Green, NSWCDD technical lead for Ship-to-Shore Precision Engagement Integration and Prototype. “This payload could enable warfighters to counter fast attack craft and fast inshore attack craft and it could provide ship-to-shore fire support for expeditionary and special operations forces. It also gives us a baseline development effort to operate and perform further research and development.”
Meanwhile, Nerney, Green, and their Textron Systems collaborators are envisioning how new payloads in the CUSV mission bay could benefit warfighters in various missions from maritime interdiction and special operations to surface warfare encounters that include engaging fast attack craft and fast inshore attack craft as well as other threats.
“We’re demonstrating the realm of the possible, proof of concept, and leveraging a Textron developmental craft and proven weapon systems with the Hellfire, BMS, and other capabilities,” said Wayne Prender, Textron Systems vice president of Control & Surface Systems. “Now, we’re bringing those technologies together and implementing them in an autonomous way that’s unique and new.”
For surface and expeditionary warfare missions, warfighters could use a modular, plug and play unit designed to fit the CUSV mission bay. This mission module includes sensors for targeting, a weapon station with a gun, and a launcher system for missiles. It could provide capabilities to enable a myriad of missions outlined in the Unmanned Surface Vehicle Master Plan.
NSWCDD engineers are creating the payload in response to guidance outlined in the Navy’s recent USV Strategic Roadmap and the Marine Corps Operating Concept. Moreover, they determined that weaponizing a USV with both direct and indirect fire capability could expand the USV mission portfolio to include surface warfare, maritime security, and maritime interdiction operations in addition to special operations forces and expeditionary forces support.
(U.S. Navy photo by Mass Communication Specialist Seaman Scott Youngblood)
“We are developing automated weapon systems that provide tactically effective automation of the entire kill chain, and we’re doing so with minimal dependence on what is usually an unreliable datalink,” said Green. “Our experience integrating unmanned systems has taught us that the weapon systems must be just as automated as the platforms themselves in order to reduce the number of operators and operate reliably beyond line of sight.”
Specifically, Sailors and Marines could be able to use the Battle Management System to fire missiles and precision guided munitions from the CUSV. They would use the autonomous system for detection, tracking, and direct fire engagement.
“If the decision was made to outfit the CUSV with a variety of payloads, it could be deployed from nearly any large ship and could be deployed in significant numbers from a U.S. Navy ship or a Joint High Speed Vessel type platform to perform a variety of roles,” said Nerney. “We are focused on the Mine Countermeasures Unmanned Surface Vehicle today because it’s the Navy’s only program of record unmanned surface vehicle platform. It’s also our concept of modular plug and play weapon systems integrated onto a USV that can be scaled up or down as appropriate. If the Navy or Marine Corps decide to build big unmanned surface vehicles, we could scale the guns and missiles up. If the decision is to go with swarms of small USVs, then we could scale the system down accordingly.”
Between now and the live fire test, NSWCDD and Textron Systems will work together to rapidly develop and integrate as proofs of concept a variety of surface and expeditionary warfare payloads for the CUSV to include operations with unmanned air and subsurface vehicles.
“Our partnerships with industry allow us to move fast,” said Fiore. “If you’re the one that’s going to be giving this capability to warfighters, I want you to be effective in doing that. That’s what motivates us and that’s why we collaborate. That’s why it’s so important for us to have you here today with your equipment and have you partnering with us.”
The Navy’s collaboration with Textron Systems began in 2011 when the developmental Common Unmanned Surface Vehicle was developed and used in a variety of Navy demonstrations.
In December 2017, the company signed a cooperative research and development agreement with NSWCDD. The agreement covers the integration of missile, designator, and remote weapon station payloads to Textron Systems’ developmental CUSV with its 3,500-pound payload capacity on the deck and a payload bay measuring 20.5 x 6.5 feet.
(U.S. Navy Photo by Mass Communication Specialist Seaman Patrick W. Mullen III.)
The company previously contracted with the Navy to develop the new Unmanned Influence Sweep System – minesweeping units towed by the CUSV – which will perform a mine countermeasure mission in support of a littoral combat ship.
“Building on the UISS program as the foundation, we signed the Cooperative Research and Development Agreement with Dahlgren,” said Prender. “We began to prototype surface warfare packages and other payloads that will strengthen the flexibility and potential capability of our platform and continue to inform the Navy and Marine Corps and overall surface community what the realm of the possible can be as they begin to expand the use of unmanned systems – in this case unmanned surface vehicles.”
The CRADA points out that NSWCDD will develop a government-owned open architecture weapon control system to include both hardware and software. Implementations of this design will enable rapid development to support and control a variety of precision guided weapons. This open architecture concept will allow vendors to provide munitions and subsystems for future capabilities as long as the munitions and subsystems support the government owned interfaces.
“We are only limited by our imaginations,” said Nerney. “Other ideas in the works for mission packages include intelligence, surveillance and reconnaissance. We can develop mission packages to support the carrying and launching of UAV’s – armed and unarmed. This will give us a hunter-killer over-the-horizon capability by pairing the armed common unmanned surface vehicle with an armed Firescout, laser weapon, or vessel-stopping equipment.”
A Planet Labs commercial satellite managed to capture a rare photo this week of a Chinese submarine at what observers believe is the entrance of a secretive undersea cave at a strategically important naval base.
The important base sits at a strategic gateway to not only the contested South China Sea but also Taiwan and the Western Pacific.
Chinese submarine at the entrance of Yulin Naval Base. Planet Labs Inc.
China likes to hide some of its strategic assets underground. For instance, the “Underground Great Wall of China” is the name given to the network of tunnels China is believed to use to store intercontinental ballistic missiles.
While the vast, hardened underground tunnel system offers a potential second-strike capability in the event of nuclear war, Dean Cheng, an Asian studies expert at the Heritage Foundation, told Insider that “it is also a way of deceiving your adversary to make sure that they have no idea how many of anything you have.”
In the case of Yulin Naval Base, submarines are most vulnerable at dock, so hiding them in underground tunnels, as has been done in the past, offers a certain degree of protection from potential adversaries, such as US Navy forces patrolling nearby.
“The benefit of underground berthing is it prevents overhead sensors like visual or electronic intelligence satellites from tracking submarine deployments to cue other surveillance and tracking assets like US submarines, patrol aircraft, and surface combatants,” Bryan Clark, a former US Navy officer and defense expert at the Hudson Institute, told Insider.
“These kinds of cues are important for US and allied intelligence gathering against adversary submarines, since they can be hard to find once they get to sea and submerge,” he added, explaining that Yulin’s location at the southern end of Hainan allows PLAN submarines to access deeper waters more quickly than other bases might permit.
“One thing to keep in mind is that the Chinese view information as a resource,” Cheng explained.
“They work very hard to make sure that all information is tightly controlled,” he said. “To their mind, it is always in their strategic interest to keep you guessing about where are my boats, how many boats do I have, and for you to be left wondering.”
“Imagine you’re playing football and all of a sudden, the other side puts 14 additional people out on the field,” he said. “Your entire playbook just went out the window.
“That’s how the Chinese view information more broadly,” Cheng said. “If I can hide things from you, when I suddenly reveal new capabilities, new numbers, you’re going to have to chuck your entire playbook that you’ve been training to, that you’ve been resourcing to, that you’ve been typically oriented toward, out the window.”
The tunnels at Yulin also make it difficult for an adversary to observe Chinese military preparations and intentions, Carl Schuster, former director of operations at US Pacific Command’s Joint Intelligence Center, told CNN.
“You have no evidence of (the submarine’s) combat readiness, operational response times and availability,” he said. “Tunnels blind potential opponents to the submarines’ operating status and patterns, denying them the ability to determine the state of China’s military preparations, knowledge critical to assessing China’s intentions and plans.”
Yulin Naval Base has been operational for decades and houses nuclear-powered fast attack and ballistic-missile submarines, among other assets.
The Pentagon expects the submarine force to continue to grow, and China watchers say Chinese subs are becoming increasingly capable as the country modernizes its force, making it more of a threat to rivals.
The photo from Planet Labs appears to show a Shang-class submarine, one of China’s newer nuclear submarines. While the boats are considered “substantially noisier” than US Los Angeles and Virginia-class submarines, “the Shangs have vertical-launch tubes for YJ-18 anti-ship cruise missiles and could be a threat to US naval forces or logistics ships operating in the open ocean,” Clark said.
China is believed to have six of these submarines, some of which are based at Yulin.
That shrapnel-scarred flak jacket or battle-blasted Kevlar might not have much use to the military by the time they’re turned in to an equipment issue facility for reset following a deployment.
But for the service member who wore them and lived to tell the tale, the items’ value just might be immeasurable.
A small provision in the fiscal 2019 defense budget bill aims to make it easier for the military to donate protective gear deemed no longer fit for military use to the service members who wore it during combat and other military operations.
The provision, first reported by Army Times, would grant formal permission to the military to do something that has from time to time been done informally — presenting old gear to the troops it protected as a keepsake — and tacitly acknowledges that the equipment these troops wear tells a story of its own.
“The Secretary of a military department may award to a member of the armed forces… and to any veteran formerly under the jurisdiction of the Secretary, demilitarized personal protective equipment (PPE) of the member or veteran that was damaged in combat or otherwise during the deployment of the member or veteran,” the provision reads. “The award of equipment under this section shall be without cost to the member or veteran concerned.”
Lance Cpl. Bradley A. Snipes stands with the helmet that saved his life. During a mission with his platoon, Snipes was shot in the head by an enemy sniper. The only thing that saved his life was the Kevlar helmet he wore.
(U.S. Marine Corps photo by Sgt. Jerad W. Alexander)
The stories of troops whose lives have been saved because their Kevlar helmets stopped an enemy bullet have become a genre of their own in reports from the battlefield. Photos showing Marines and soldiers mugging with shredded helmets highlight the importance of the stories these protective items tell.
One Marine Corps news release from 2005 recounts how Lance Cpl. Bradley Snipes, an anti-tank assaultman with 3rd Battalion, 6th Marines, was hit squarely in the head by a sniper round during a deployment to Iraq. He came away uninjured, thanks to his Kevlar.
“I was really surprised. It’s supposed to be able to stop a 7.62mm round at long distances. Well, it did,” he told a Marine combat correspondent at the time. “The gear works, don’t doubt it. This is proof.”
The story added that Snipes wanted to petition to keep his helmet as a memento. It’s not clear from the story or follow-on reports if he was given the chance to do so.
“I want to put it in a case with a plaque that says, ‘The little bullet that couldn’t,'” he said.
This article originally appeared on Military.com. Follow @military.com on Twitter.
According to popular legend, in 1859, “the quatrefoil” design was added and stitched onto the top of Marine officer’s cover to help identify them from the rest of the personnel.
The quatrefoil — adapted from the French — is a cross-shaped braid with many different symbolic interpretations. Some think of it as representing the four cardinal directions, while in architecture it is an icon of design (and it’s fancy).
Much has been made of Russian and Chinese missiles – and they do warrant attention. But the submarine still remains a very deadly assassin. If anything, that danger has taken on new forms, as the crew of the South Korean corvette Cheonan found out in 2010.
So, how will these underwater assassins be prevented from carrying out their nefarious deeds? Here are four systems that were displayed by L3 Ocean Systems at SeaAirSpace 2017.
The big problem many helicopters deal with is weight. Every pound for sensors is a pound that can’t be fuel or a weapon or a sonobouy.
At less than 400 pounds, the Firefly is a dipping sonar that can be used on much smaller helicopters – allowing someone who needs some coastal ASW to install it on more platforms than if it were a heavier sonar. Or, on the flip side, the helo that trades in a heavier dipping sonar for this lighter one gains more fuel, and thus, more range – or possibly an extra weapon, giving it an extra shot at an enemy sub.
Firefly can operate as deep as 656 feet of water, and can pick up a target almost 20 miles away. That’s not bad for this small package.
The Helicopter Long Range Active Sonar is used by nine separate navies, including Italy, Thailand, Greece, and Turkey. This sonar weighs 716 pounds – but it is also interoperable with the sonars on surface ships and the sonobouys dropped by other helicopters and maritime patrol planes.
It can operate at depths of up to 1,640 feet — meaning running silent and running deep won’t help a sub escape detection from this sonar. And once the sub is located… its captain will have an exciting – and short – time to ponder his situation.
Let’s face it – diesel-electric submarines are getting better and better. They are finding ways to operate without having to snorkel while charging their batteries. The batteries are getting better, and even cell phone battery technology is being leveraged for subs.
The solution is to do what they did in World War II – use active sonar to ping and find the submarine. The Low-Frequency Active Towed Sonar can do that – and can be placed on a vessel as small as 100 tons. It can operate at depths of up to 984 feet. In essence, in shallow water, there is no place for a sub to hide from this sonar. Not when every patrol boat can have one.
You might find it interesting that a towed-array for a submarine is on here, but the U.S. Navy’s nuclear submarines sometimes have to operate in shallow water where diesel boats can hide a lot more easily.
Able to operate at depths of over 1,000 feet at a speed of up to 12 knots, the TB-23F makes any submarine that tows it more capable when it comes to hunting the submarines of the enemy.
So, while the submarine threat has gotten worse, a lot of works has been done on developing ways to find these underwater assassins before they can do harm to the valuable ships.
“We will never tolerate threats from anybody. Rule of law is for everyone; no exception,” he wrote.
Trump’s comments come an hour after Vice President Mike Pence issued a similar threat, warning of “significant sanctions” against Ankara.
“To President [Recep Tayyip] Erdogan and the Turkish government, I have a message on behalf of the president of the United States of America: Release Pastor Andrew Brunson now or be prepared to face the consequences,” Pence said, speaking at a State Department event in Washington to advance religious freedom.
Brunson, who has worked in Turkey for more than 20 years, was jailed in 2016 and was indicted a year later on terrorism and espionage charges, accused of aiding groups Ankara alleges were behind a failed military coup in 2016.
Brunson was held in custody until July 25, 2018, when he was transferred to house arrest.
Secretary of State Mike Pompeo said the move to house arrest was “not enough” and that he should be allowed to leave Turkey.
Featured image: Turkish Foreign Minister Mevlut Cavusoglu
The U.S. Marines are about to start receiving real robotic exoskeletons for testing, but these exo-suits aren’t headed into combat any time soon. Instead, they’ll be supporting logistical operations like loading and unloading pallets of gear and ammunition in the field.
While that might not sound like the sort of high-speed missions you imagined for the first widely-used military robotic exoskeletons, it’s really the most logical (and feasible) use for this burgeoning technology. America’s Special Operations Command spent years working to develop the TALOS robotic exoskeleton for specialized combat applications, but found the various systems they employed were too finicky for serious combat ops. While exoskeletons can significantly augment a person’s strength, they also consume a huge amount of power, often requiring that they stay tethered to a power cable.
Mock up of a TALOS suit. (U.S. Army photo by Anthony Taylor, 85th Support Command Public Affairs Office)
TALOS was ultimately canceled last year, but a number of different technologies developed for the forward-thinking system continue to live on in various weapon development programs that fall under SOCOM’s purview. Sarcos Defense’ new suit isn’t derived from the TALOS program, but offers some of the same significant advantages, including the ability to increase the strength and endurance of whoever’s strapped in. Despite the TALOS program’s progress in a number of areas, it was ultimately deemed infeasible for combat.
However, just because robotic exoskeleton technology isn’t quite advanced to the point where it can be used outside the wire quite yet, it could be an extremely useful solution to problems service members still have inside forward operating bases. Unloading literal tons of equipment, ammunition, and supplies that arrive on pallets is one such challenge.
By utilizing the Sarcos Defense Guardian XO Alpha robotic exoskeleton, a single Marine can do the offloading work that would normally require an entire dedicated fire team.
“As the U.S. Marine Corps focuses on logistics and sustainment modernization as one of their key priorities and looks to reduce the manpower required to conduct expeditionary operations, the Guardian XO is well-suited to fulfill a wide variety of logistics applications to address their needs and requirements.” –Sarcos Defense
As America’s premier expeditionary force, The Marines have placed a renewed emphasis on Expeditionary Advanced Basing Operations (EABO) in recent years. Put simply, EABO is all about increasing the operational capabilities of Marines working in austere environments that may not be near large military installations. The intent behind incorporating new technology like the Guardian XO Alpha is to bring big installation capabilities to forward operating areas. Whereas large military installations can utilize forklifts to rapidly load or unload supplies, smaller FOBs (Forward Operating Bases) have to rely on manpower to unload supplies when they arrive.
“Instead of a team of four Marines, maybe you only need a Marine with this capability to offload pallets or move or load munitions,” Jim Miller, Sarcos Robotics’ vice president of defense solutions, explained last year.
Sarcos Guardian® XO® Full-Body Powered Exoskeleton: Alpha Unit Preview
In the short term, Marines will be assessing this new robotic exoskeleton to see just how useful it might be in a variety of operations, including some the team at Sarcos might not have thought of yet. Of course, another important part of the testing process will be figuring out what this exo-suit can’t do, and that’s where the Marines may really shine. After all, if you want to find out just how hard you can run a piece of gear before it dies, there are few organizations more qualified for such a torture test than the United States Marine Corps.
The Guardian XO robot, an exoskeleton suit to help reduce the risk of injuries by improving human strength and endurance, is on display at the 2019 Modern Day Marine Expo on Marine Corps Base Quantico, Va., Sept. 18, 2019. (U.S. Marine Corps photo by Lance Cpl. Yuritzy Gomez)
“The Sarcos Defense team is very pleased that the U.S. Marine Corps will be testing use cases for our Guardian XO Alpha version this year,” said Ben Wolff, CEO, Sarcos Defense.
“Our military branches need to regularly address changing personnel issues and reduce the risk of injury from performing heavy-lifting tasks. We believe that our full-body, powered exoskeletons will be a huge benefit to the Marines as well as the U.S. Air Force, U.S. Navy and USSOCOM, who we are also working with on our exoskeleton technology.”
The ongoing volcanic eruptions from Hawaii have been so massive that astronauts can see them from space — and the pictures are incredible.
Ricky Arnold and AJ Feustel, US astronauts stationed on to the International Space Station, posted dramatic photos to Twitter of the ash plume emerging from the Kilauea volcano on the east of the Big Island.
(Ricky Arnold / Twitter)
The volcano erupted on May 10, 2018, and is showing no signs of slowing down.
The crater is already emitting noxious fumes which can make breathing difficult for children and elderly people. The ash cloud has reached as high as 12,000 feet about sea level.
Feustal wrote: “It is easy to see the activity on Hawaii’s Kilauea Volcano from the International Space Station. We hope those in the vicinity of the eruption can stay out of harm’s way.”
(Ricky Arnold / Twitter)
Lava and molten rock bursting from the volcano’s fissures also destroyed at least 26 homes and four other buildings over the weekend, forcing 1,700 people to evacuate.
The US Geological Survey issued a rare “red alert” warning, which means a major volcanic eruptions is imminent or underway, and that the ash clouds could affect air traffic.
Here’s a shot of the volcano from a lot closer to the ground:
(Kevan Kamibayashi / US Geological Survey)
This article originally appeared on Business Insider. Follow @BusinessInsider on Twitter.
White phosphorous, often known by the nickname “Willie Pete,” is possibly one of the oddest and most controversial weapons on military frontlines, including in American units. Its use as a chemical weapon is banned, but its use as an incendiary weapon is simply limited, and use as a signaling device is fine.
U.S. Air Force drops a white phosphorous bomb on a Viet Cong position in 1966.
(U.S. Air Force)
First, let’s look at why some weapons are illegal, especially chemical weapons. Chemical weapons work by interrupting human processes, some via very gruesome means. Mustard gas causes extreme respiratory irritation, sometimes to the point that those hit by it will develop fatal lung infections. Sarin gas can cause muscle convulsions, paralysis, and respiratory arrest. Both can permanently disfigure people.
In other words, gruesome ways to be wounded or killed.
As a chemical weapon, phosphorous can be released as a gas that is breathed in by the enemy, burning the insides of their lungs and killing them by cooking them from the inside out. Or, it can be introduced into enemy water supplies to poison them. It’s illegal to use phosphorous in either of these ways.
But phosphorous is a peculiar beast because, while there are no legally accepted military uses for sarin or mustard gas, there are accepted uses of white phosphorous, because it can also burn people externally or its white smoke can be used to screen troop movements or mark battlefield locations.
The chemical burns at about 86 degrees Fahrenheit. And, when burning, phosphorous emits 5,000 degrees of heat. So, it can spontaneously combust on a warm day, and it can easily sustain its own reaction once it gets going. If it’s cold outside, then even a small charge in an artillery shell can ignite the reaction.
Once it’s burning, phosphorous emits clouds of thick smoke. For infantry and other maneuver troops attacking an enemy position, that means phosphorous smoke can block the view of defenders trying to kill them. This use of phosphorous is completely legal. It can also be used to mark enemy positions which, again, is completely legal.
Shells from M777A2 155mm Howitzer cannons rain white phosphorous on a target during a four-day, live-fire exercise following the conclusion of Talisman Saber 13 in Australia on Aug 3, 2013.
(U.S. Marine Corps Sgt. Paul Robbins Jr.)
But if you release still-burning phosphorous into the air and get that onto people, then it’s extremely dangerous. Phosphorous, again, will continue burning as long as it’s exposed to oxygen and above 86 degrees. So, if a chunk lands on a person’s shoulder, it will stay above 86 degrees and will keep releasing 5,000 degrees of heat until it runs out of fuel or is drowned in water or mud.
But even drowning phosphorous won’t work long-term in human skin, because it will re-ignite from the body heat the moment the water stops flowing. So, in Vietnam, American troops learned to cut the chunks of phosphorous out with knives if any friendlies were hit.
This use of phosphorous is legal, as long as the shooter takes “care” to prevent exposing civilians to the weapon.
And this is the thing that some groups will point to as insane. If it’s illegal to use it as a chemical weapon, how can you use the chemical as a weapon without it being a chemical weapon?
Well, first, everything is a chemical, and pretty much all weapons that aren’t iron or stone rely on chemical reactions of some kind. Bombs are explosive chemical reactions. Napalm and other incendiary weapons rely on chemical reactions that release a lot of heat, burning the flesh of enemy troops. It’s not a chemical reaction that is banned, or the release of heat. Chemical weapon laws really only apply to those weapons which directly interact with the target’s cells.
But heating the cells up, as you would with napalm, is legal.
And that’s how white phosphorous, as an incendiary weapon, works. It’s stored safely encased, then fired against an enemy, exposing it to the air and igniting it in the process. Once the burning phosphorous hits enemy troops, it sears them. A World War II test of phosphorous smoke screens found that, when fired against mock German defenders, the smoke screen would kill or seriously wound 40 percent of the defenders before the U.S. infantry arrived to fight them.
War Dept Film Bulletin 55 White Phosphorus VS High Explosive 1943 (full)
War Dept Film Bulletin 55 White Phosphorus VS High Explosive 1943 (full)
And that’s why, as long as the weapon is legal in any context, there will be an incentive for commanders to use it. Without overhead cover, 40 percent of the defenders could be knocked out by the smoke screen. By the smoke screen. High explosive mortar rounds used in the same World War II test generated only 24 percent casualties.
Remember, the point of war is to force an enemy into submission to achieve some political goal. It’s gruesome, but it always includes humans killing humans, and explosions and burning are accepted methods of killing each other in war.
And so, the question that will confront investigators looking into Israel’s actions will be, “How was the weapon used? And did it cause undue damage to civilians?” Those are the same questions they would have to look at if a bomb was dropped on a church or hospital.
Was this a valid military act, or maybe a valid act that went awry? Or was a commander deliberately harming civilians?
When you mention the term “Growler,” most people will think of the Boeing EA-18G, the electronic-warfare version of the F/A-18F Super Hornet that replaced the Grumman EA-6B Prowler on the Navy’s carrier decks and in Marine Corps service. But there is another Growler, this one from Russia, that hunts the planes that the American Growler is intended to protect.
The Russians actually call this system the S-400 Triumf. NATO, though, calls it the SA-21 Growler. This system is evolved from the SA-10 Grumble, a surface-to-air system comparable to the MIM-104 Patriot. The SA-10, known as the S-300, was known as one of Russia’s best systems in the 1990s and was the keystone of their tactical/operational area defense units.
The problem was, thanks to America developing stealth technology, it was easily neutralized.
The SA-10/S-300 entered service with the Soviet Union in 1978. A combination of the fall of the Berlin Wall, Operation Desert Storm, and the NATO interventions in the Balkans soon indicated that the SA-10 wasn’t nearly good enough for Russia’s air defense needs. So development of the SA-21/S-400 began.
The system entered service in 2007, and Russia is using it to supplement the SA-10s in operational service. MilitaryFactory.com notes that there are three possible missiles that the SA-21 can fire. The first is the 9M96, with a range of just under 75 miles. The second is the 48N6 with a range of 155 miles. The third is the 40N6, with a range of just under 250 miles.
In the 1990s, Russia had no problem exporting the SA-10 to just about anyone with hard currency. The end of history came with one of the most…well, let’s just say loads of firepower was available for dirt-cheap prices – the ultimate yard sale.
NASA and the Department of Energy’s National Nuclear Security Administration have successfully demonstrated a new nuclear reactor power system that could enable long-duration crewed missions to the Moon, Mars and destinations beyond.
NASA announced the results of the demonstration, called the Kilopower Reactor Using Stirling Technology experiment, during a news conference May 2, 2018, at its Glenn Research Center in Cleveland. The Kilopower experimentwas conducted at the NNSA’s Nevada National Security Site from November 2017 through March 2018.
“Safe, efficient and plentiful energy will be the key to future robotic and human exploration,” said Jim Reuter, NASA’s acting associate administrator for the Space Technology Mission Directorate (STMD) in Washington. “I expect the Kilopower project to be an essential part of lunar and Mars power architectures as they evolve.”
Kilopower is a small, lightweight fission power system capable of providing up to 10 kilowatts of electrical power – enough to run several average households – continuously for at least 10 years. Four Kilopower units would provide enough power to establish an outpost.
(Los Alamos National Laboratory photo)
According to Marc Gibson, lead Kilopower engineer at Glenn, the pioneering power system is ideal for the Moon, where power generation from sunlight is difficult because lunar nights are equivalent to 14 days on Earth.
“Kilopower gives us the ability to do much higher power missions, and to explore the shadowed craters of the Moon,” said Gibson. “When we start sending astronauts for long stays on the Moon and to other planets, that’s going to require a new class of power that we’ve never needed before.”
The prototype power system uses a solid, cast uranium-235 reactor core, about the size of a paper towel roll. Passive sodium heat pipes transfer reactor heat to high-efficiency Stirling engines, which convert the heat to electricity.
According to David Poston, the chief reactor designer at NNSA’s Los Alamos National Laboratory, the purpose of the recent experiment in Nevada was two-fold: to demonstrate that the system can create electricity with fission power, and to show the system is stable and safe no matter what environment it encounters.
“We threw everything we could at this reactor, in terms of nominal and off-normal operating scenarios and KRUSTY passed with flying colors,” said Poston.
The Kilopower team conducted the experiment in four phases. The first two phases, conducted without power, confirmed that each component of the system behaved as expected. During the third phase, the team increased power to heat the core incrementally before moving on to the final phase. The experiment culminated with a 28-hour, full-power test that simulated a mission, including reactor startup, ramp to full power, steady operation and shutdown.
(Los Alamos National Laboratory photo)
Throughout the experiment, the team simulated power reduction, failed engines and failed heat pipes, showing that the system could continue to operate and successfully handle multiple failures.
“We put the system through its paces,” said Gibson. “We understand the reactor very well, and this test proved that the system works the way we designed it to work. No matter what environment we expose it to, the reactor performs very well.”
The Kilopower project is developing mission concepts and performing additional risk reduction activities to prepare for a possible future flight demonstration. The project will remain a part of the STMD’s Game Changing Development program with the goal of transitioning to the Technology Demonstration Mission program in Fiscal Year 2020.
Such a demonstration could pave the way for future Kilopower systems that power human outposts on the Moon and Mars, including missions that rely on In-situ Resource Utilization to produce local propellants and other materials.
The Kilopower project is led by Glenn, in partnership with NASA’s Marshall Space Flight Center in Huntsville, Alabama,and NNSA, including its Los Alamos National Laboratory, Nevada National Security Site and Y-12 National Security Complex.
For more information about the Kilopower project, including images and video, visit:
Before the advent of stealth aircraft, the U.S. military had a very different approach on how to operate its planes in contested airspace. That approach could be summarized in two words:
In those early years of air defense system development, the U.S. was less interested in developing sneaky aircraft and more concerned with developing untouchable ones– utilizing platforms that leveraged high altitude, high speed, or both to beat out air defenses of all sorts — whether we’re talking surface to air missiles or even air superiority fighters.
Lockheed’s legendary Kelly Johnson, designer of just about every badass aircraft you can imagine from the C-130 to the U-2 Spy Plane, was the Pentagon’s go-to guy when it came to designing platforms that could evade interception through speed and altitude. His U-2 Spy Plane, designed and built on a shoestring budget and in a span of just a few months, first proved the concept of flying above enemy defenses, but then America needed something that could also outrun anything Russia could throw its way. The result was the Blackbird family of jets, including the operational SR-71 — an aircraft that remains the fastest operational military plane ever to take to the sky.
You could make a list of 1000 amazing facts about the SR-71 without breaking a sweat — but here are three even a few aviation nerds may not have of heard before:
The Blackbird had over 4,000 missiles fired at it. None ever hit their target.
The SR-71 Blackbird remained in operational service as a high speed, high altitude surveillance platform for 34 years — flying at speeds in excess of Mach 3 at altitudes of around 80,000 feet. This combination of speed and altitude made it all but untouchable to enemy anti-air missiles, so even when a nation knew that there was an SR-71 flying in their airspace, there was next to nothing it could do about it. According to Air Force data collected through pilot reports and other intelligence sources more than 4,000 missiles were fired at the SR-71 during its operational flights, but none ever managed to actually catch the fast-moving platform.
Its windshield gets so hot it had to be made of quartz.
Flying at such high speeds and altitudes puts incredible strain on the aircraft and its occupants, which forced Lockheed to find creative solutions to problems as they arose. One such problem was the immense amount of heat — often higher than 600 degrees Fahrenheit — that the windshield of the SR-71 would experience at top speeds. Designers ultimately decided that using quartz for the windshield was the best way to prevent any blur or window distortion under these conditions, so they ultrasonically fused the quartz to the aircraft’s titanium hull.
The SR-71 was the last major military aircraft to be designed using a ‘slide rule.’
There are countless incredible facts about the SR-71 that would warrant a place on this list, but this is one of the few facts that pertains specifically to the incredible people tasked with developing it. Not long after the SR-71 took to the sky, the most difficult mathematical aspects of aircraft design were handed off to computers that could crunch the numbers more quickly and reliably — but that wasn’t the case for the Blackbird. Kelly Johnson and his team used their “slide rules,” which were basically just specialized rulers with a slide that designers could use to aid them in their calculations in designing the mighty Blackbird. Years later, the aircraft was reviewed using modern aviation design computers only to reveal that the machines would not have suggested any changes to the design.
Just for fun, here’s Major Brian Shul’s incredible “Speed Check” story about flying the Blackbird.
Major Brian Shul, USAF (Ret.) SR-71 Blackbird ‘Speed Check’