Marine Corps Systems Command plans to implement a new form of technology that allows the Marine Air-Ground Task Force to identify enemy activity.
The technology employs a vehicle-borne tool that enables Marines to discern what happens inside the electromagnetic spectrum. It connects several independent electronic capabilities into a single unit and allows Marines to manage threats and reactions from a central location.
“Marines are going to be able to make decisions on what they are seeing,” said Lt. Col. Thomas Dono, a team lead in MCSC’s Command Elements Systems.
Marines currently use systems to counter IEDs that block signals used by adversaries to remotely detonate explosive devices. The new technology is a man-packable and vehicle-mounted system, which will be able to be deployed on any Marine vehicle.
“This emergent technology combines a number of current capabilities into one system, thereby reducing the need for additional training and logistic support to manage multiple systems,” said Col. Dave Burton, program manager for Intelligence Systems at MCSC.
Marines with Regimental Combat Team 5 train in searching for improvised explosive devices.
(US Marine Corps photo)
Once fielded, the system will enhance situational awareness on the battlefield.
“We will be able to do all of the functions of similar systems as well as sense and then display what is going on in the electronic spectrum,” said Dono. “Then we can communicate that to Marines for their decision-making process.”
MCSC is taking an evolutionary approach that allows the command to field the equipment faster and then gradually improve the capability as time progresses, Dono said. As the technology evolves, the Marine Corps can make incremental improvements as needed.
The Corps will work with Marines to test a variety of displays that track the electromagnetic spectrum, looking into each display’s user interface. The command can then determine if improvements must be made to ensure usability.
“It’s similar to what Apple does with the iPhone,” explained Dono. “They have many different displays and they want to make it natural and intuitive, so it’s not something that’s clunky, confusing and has to be learned.”
MCSC plans to field the vehicle-mounted system around the first quarter of 2020. When implemented, the equipment will continue to grow in capability to better prepare Marines to take on the digital battlefield.
“This system is important because it is going to allow Marines to operate inside the electromagnetic spectrum, make decisions and act upon that information,” said Dono. “That’s something they’ve never had to consider or think about in the past.”
Admit it — you like seeing the low-level flyovers by Air Force or Navy planes. Especially when they are sleek and just exude the notion that they are flown by pilots who appreciate fast jets and faster… well, you get the idea. But while fighters often have that distinction, the B-1B Lancer has shown it, too can exude that — while still carrying a lot of firepower.
During President Trump’s trip to East Asia, the sailors on three Nimitz-class nuclear-powered aircraft carriers got to see a pair of B-1B Lancers do just such a flyby. The carriers USS Theodore Roosevelt (CVN 71), USS Ronald Reagan (CVN 76) and USS Nimitz (CVN 68) operated with a Japanese “helicopter destroyer” during that time.
Each of these carriers usually operates with four squadrons of strike fighters, either F/A-18C Hornets or F/A-18E/F Super Hornets. That’s a powerful force, but the F/A-18Cs are limited to two missiles like the AGM-84 Harpoon/SLAM or AGM-158C LRASM, while the F/A-18E/Fs can carry four.
F/A-18E Super Hornets, assigned to the “Fist of the Fleet” of Strike Fighter Squadron (VFA) 25, fly over the flight deck of aircraft carrier USS Harry S. Truman (CVN 75). (U.S. Navy photo by Mass Communication Specialist 3rd Class Anthony Flynn/Released)
By comparison, a B-1B Lancer can carry twenty-four. So, the two Lancers in the video below can deliver the same number of missiles as an entire squadron of F/A-18Cs. In a naval battle with China, eight B-1s with LRASMs could conceivably take out two Chinese carrier groups. What those bombers could do with the AGM-158 JASSM and JASSM-ER to land targets would be equally devastating.
You can see a video of the Lancers doing a flyby of the three carriers and the Japanese “helicopter destroyer” below. The video was taken from a Navy helicopter orbiting the three-carrier formation.
The US Army is turning up the power on its plans for a high-energy laser to shoot down everything from rockets and mortars to even “more stressing threats,” the service recently revealed.
The Army plans to field a 50-kilowatt laser on Stryker armored combat vehicles within the next few years to defend troops against enemy unmanned aerial systems, as well as rockets, artillery, and mortars. The Army has previously practiced shooting down drones with 5-kilowatt lasers.
The next step for the Army was to develop and deploy more powerful 100-kilowatt combat lasers on heavy trucks, but the Army has since changed its plans, deciding to instead pursue a 250-300 kilowatt laser, Breaking Defense reports.
Rather than develop the 100-kilowatt High Energy Laser Tactical Vehicle Demonstrator (HEL-TVD), the Army will instead work on developing the more powerful directed energy weapon to support the Indirect Fire Protection Capability (IFPC) aimed at countering cruise missiles.
United States Tomahawk cruise missile.
The Army declined to clarify whether or not “more stressing threats” included cruise missiles, a growing threat facing American warfighters, but experts told Breaking Defense that 300 kilowatts was the threshold for shooting down cruise missiles.
The Strykers armed with 50-kilowatt lasers are expected to be fielded in 2022, and the more powerful HEL-IFPC is likely to be in the hands of US soldiers by 2024.
Directed-energy weapons are cost-effective alternatives to traditional air-and-missile defense capabilities.
“The advantage of the laser is that we have the ability to have an unlimited magazine when it comes to unmanned aerial systems, as well as rockets, artillery, mortars,” Lt. Gen. Paul Ostrowski, the principal military deputy to the assistant secretary of the Army for acquisition, logistics and technology, said in July 2019.
A Stryker Mobile Expeditionary High Energy Laser.
(U.S. Army photo)
“Where before we were shooting 0,000 missiles at ,000 [Unmanned Aerial Systems]. This puts us in a position where we’re not spending that kind of money to do that. We’re taking those targets down in a much more rapid fashion and a much cheaper fashion.”
And, the Army isn’t the only service trying to develop combat lasers.
The Navy is planning to equip its Arleigh Burke-class destroyers with the 60-kilowatt High Energy Laser and Integrated Optical-dazzler with Surveillance (HELIOS) system designed to target small attack boats and drones, and the Air Force is working on the Self-Protect High-Energy Laser Demonstrator (SHiELD) program to develop a weapon to counter surface-to-air and air-to-air missiles.
This article originally appeared on Business Insider. Follow @BusinessInsider on Twitter.
The United States Navy commissioned its newest destroyer, USS Zumwalt (DDG 1000), a few years ago. It’s had a hiccup or two, but make no mistake, this is a very modern naval warship. It has tons of firepower, including two 155mm guns, 20 four-cell Mk 57 vertical-launch systems, and two 30mm guns. But how would it fare against the best surface combatant in the Russian Navy, the Pyotr Velikiy, the last of four Kirov-class battlecruisers?
This sort of ship-versus-ship combat looks one-sided in favor of the Russian ship. The Zumwalt is designed to hit and kill targets on land using BGM-109 Tomahawk cruise missiles and has some self-defense capability with the RIM-162 Evolved Sea Sparrow Missile. The Pyotr Velikiy, on the other hand, was primarily designed for naval anti-air combat, armed with SS-N-19 Shipwreck anti-ship missiles, SA-N-6 Grumble surface-to-air missiles, and a twin 130mm turret.
Looks can be deceiving. While firepower matters in any sort of combat, you need a target for that firepower. The Zumwalt, with its stealth technology, is a very elusive target. Yeah, one or two SS-N-19s could leave it a burning wreck, but they’d need to find it and hit it first. On the other hand, the Kirov’s not that stealthy. Its radars might as well be a big signpost saying, “I’m over here!”
Furthermore, the Zumwalt has a few more anti-ship weapons options. One of which is Vulcano technology, which transforms its 155mm guns into anti-ship missile launchers. This places the Kirov in a world of hurt. Seeing as the Zumwalt can carry 300 rounds for each of its two 155mm guns, that’s a lot of threatening firepower. Furthermore, some advanced versions of the Tomahawk missile can be used as anti-ship munitions. To make matters worse for the Pyotr Velikiy, the Zumwalt is likely able to be upgraded with systems like a ship-launched version of the LRASM.
In short, the real winner of this fight will come down to who can see the enemy ship first and in that department, the Zumwalt has the edge.
Most of what is lying around in the dusty expanse of the aircraft graveyards around Tucson, Arizona is readily identifiable and not entirely remarkable.
Ejection seats from old F-4 Phantoms. An old CH-53 helicopter hulk. An interesting find over there is a fuselage section of a Soviet-era MiG-23 Flogger. No idea how it got here. Other than that, it’s just long rows of old, broken, silent airplanes inside high fences surrounded by cactus, dust, sand and more sand. An errant aileron on a dead wing clunks quietly against the hot afternoon breeze as if willing itself back into the air. But like everything here, its days of flying are over.
But there… What is that strange, manta-ray shaped, dusty black thing lying at an angle just on the other side of that fence? It may be an old airfield wind vane or radar test model. But it also may be…
(U.S. Air Force photo)
I had only read about it and seen grainy photos of it. I know it’s impossible. The project was so secret not much information exists about the details even today. But I stand there gawking through the chain link fence as the ruins of the other planes bear silent witness. It’ like the corpses of the other airplanes are urging me to look closer. To not leave. Their silent dignity begs me to tell this story.
After nearly a minute of studying it through the fence I realize; I am right. It is right before my eyes. Ten feet away. Despite the 100-degree heat I get goosebumps. And I start running.
I quickly locate a spot where the entire fence line opens up. I skirt the fence and in a couple minutes running around the sandy airplane corpses I’m inside. There, sitting right in front of me on its decrepit transport cart and dusted with windblown sand, abandoned in the Sonoran Desert, is one of Kelly Johnson and Ben Rich’s most ambitious classified projects from the fabled Lockheed Skunk Works.
(Lockheed Martin photo)
I just found the CIA’s ultra-secret Mach 3.3+ D-21 long-range reconnaissance drone. The D-21 was so weird, so ambitious, so unlikely it remains one of the most improbable concepts in the history of the often-bizarre world of ultra-secret “black” aviation projects. And now it lies discarded in the desert. The story behind it is so bizarre it is difficult to believe, but it is true.
July 30, 1966: Flight Level 920 (92,000 ft.), Mach 3.25, Above Point Mugu Naval Air Missile Test Center, Off Oxnard, California.
Only an SR-71 Blackbird is fast enough and can fly high enough to photograph this, the most classified of national security tests. Traveling faster than a rifle bullet at 91,000 feet, near inner-space altitude, one of the most ambitious and bizarre contraptions in the history of mankind is about to be tested.
“Tagboard” is its codename. Because of the catastrophic May, 1960 shoot-down of Francis Gary Powers’ Lockheed U-2 high altitude spy plane over the Soviet Union the CIA and is in desperate need of another way to spy on the rising threat of communist nuclear tests. Even worse, the other “Red Menace”, the Chinese, are testing massive hydrogen bombs in a remote location of the Gobi Desert near the Mongolian/Chinese border. It would be easier to observe the tests if the Chinese did them on the moon.
The goal is simple, but the problem is titanic. Get photos of the top-secret Red Chinese hydrogen bomb tests near the Mongolian border deep inside Asia, then get them back, without being detected.
Lockheed Skunkworks boss Kelly Johnson and an elite, ultra-classified small team of aerospace engineers have built an aircraft so far ahead of its time that even a vivid imagination has difficulty envisioning it.
Flat, triangular, black, featureless except for its odd plan form as viewed from above, like a demon’s cloak, it has a sharply pointed nose recessed into a forward-facing orifice. That’s it. No canopy, no cockpit, no weapons. Nothing attached to the outside. Even more so than a rifle bullet its shape is smooth and simple. This is the ultra-secret D-21 drone.
(U.S. Air Force photo)
The D-21 is truly a “drone”, not a remotely piloted aircraft (RPA). Its flight plan is programmed into a guidance system. It is launched from a mothership launch aircraft at speed and altitude. It flies a predetermined spy mission from 17 miles above the ground and flashes over at three times the speed of sound. It photographs massive swaths of land with incredible detail and resolution. And because of its remarkably stealthy shape, no one will ever know it was there.
Today the D-21 rides on the back of a Lockheed M-21, a specialized variant of the SR-71 Blackbird, the famous Mach 3+ high altitude spy plane. The M-21 version of the SR-71 carries the D-21 drone on its back up to launch speed and altitude. The it ignites the D-21’s unique RJ43-MA20S-4 ramjet engine and releases it on its pre-programmed flight.
Chasing the M-21 and D-21 combination today is a Lockheed SR-71, the only thing that can keep up with this combination of aircraft. It is the SR-71’s job to photograph and film the test launch of the D-21 drone from the M-21 launch aircraft.
There have been three successful launch separations of the D-21 from the M-21 launch aircraft so far. In each of these flights, even though the launch was successful, the D-21 drone fell victim to some minor mechanical failure that destroyed the drone, because, at over Mach 3 and 90,000 feet, there really are no “minor” failures.
Today Bill Park and Ray Torick are the flight crew on board the M-21 launch aircraft. They sit inside the M-21 launch aircraft dressed in pressurized high altitude flight suits that resemble space suits.
Once at predetermined launch speed and altitude the M-21/D-21 combination flies next to the SR-71 camera plane. Keith Beswick is filming the launch test from the SR-71 camera plane. Ray Torick, the drone launch controller sitting in the back seat of the tandem M-21, launches the D-21 from its position on top of the M-21’s fuselage between the massive engines.
Something goes wrong.
The D-21 drone separates and rolls slightly to its left side. It strikes the left vertical stabilizer of the M-21 mother ship. Then it caroms back into the M-21’s upper fuselage, exerting massive triple supersonic forces downward on the M-21 aircraft. The M-21 begins to pitch up and physics takes over as Bill Park and Ray Torick make the split-second transition from test pilots to helpless passengers to crash victims.
The triple supersonic forces rip both aircraft apart in the thin, freezing air. Shards of titanium and shrapnel from engine parts trail smoke and frozen vapor as they disintegrate in the upper atmosphere. There is no such thing as a minor accident at Mach 3+ and 92,000 feet.
Miraculously, both Bill Park and Ray Torick eject from the shattered M-21 mother ship. Even more remarkably, they actually survive the ejection. The pair splash down in the Pacific 150 miles off the California coast. Bill Park successfully deploys the small life raft attached to his ejection seat. Ray Torick lands in the ocean but opens the visor on his spacesuit-like helmet attached to his pressurized flight suit. The suit floods through the face opening in his helmet. Torick drowns before he can be rescued. Keith Beswick, the pilot filming the accident from the SR-71 chase plane, has to go to the mortuary to cut Ray Torick’s body out of the pressurized high-altitude flight suit before he can be buried.
The ultra-secret test program to launch a D-21 drone from the top of an M-21 launch aircraft at over Mach 3 and 90,000 feet, is cancelled.
The D-21 program does move forward on its own. Now the drone is dropped from a lumbering B-52 mothership. The D-21 is then boosted to high altitude and Mach 3+ with a rocket booster. Once at speed and altitude the booster unit drops off and the D-21 drone begins its spy mission.
After more than a year of test launches from the B-52 mothership the D-21 drone was ready for its first operational missions over Red China. President Nixon approved the first reconnaissance flight for November 9, 1969. The mission was launched from Beale AFB in California.
Despite a successful launch the D-21 drone was lost. In the middle of 1972, after four attempts at overflying Red China with the D-21 drone and four mission failures, the program was cancelled. It was imaginative. It was innovative. It was ingenious. But it was impossible.
So ended one of the most ambitious and outrageous espionage projects in history.
1604 Hrs. December 20, 2009. In the Back Storage Yard of the Pima Air Space Museum Outside Tucson, Arizona.
I pet airplanes when I can. I’m not exactly sure why, maybe to be able to say I did. Maybe to try to gain some tactile sense of their history. Maybe to absorb something from them, if such a thing is possible. Maybe so that, when I am old and dying, I can reflect back on what it felt like to stand next to them and touch them. I don’t know why I touch them and stroke them, but I do.
The fully restored Lockheed D-21 drone at the Pima Air Space Museum outside Tucson, Arizona.
(Pima Air Space Museum photo)
The D-21 is dusty and warm in the late afternoon Arizona sun. Its titanium skin is hard, not slightly forgiving like an aluminum airplane. It gives away nothing. Silent. Brooding. After I touch it my hand came away with some of the dust from it. I don’t wipe it off.
Sometime later in the coming years, the D-21B drone, number 90-0533, is brought inside the vast restoration facility at the Pima Air Space Museum and beautifully restored. Now it lies in state, on display inside the museum.
But when I first found it sitting abandoned in the storage yard, dusty and baking in the Sonoran Desert sun, it felt like its warm titanium skin still had some secret life left in it.
This article originally appeared on The Aviationist. Follow @theaviationist on Twitter.
Editor’s Note: This is part two of George Hand’s story about his Special Forces team operating in Alaska. Read part one here.
I admit I got some pretty decent shuteye in that Patrol Base (PB). I ate cold food because I just don’t care, plus heating food is such a hassle in the field. I did heat up a canteen cup of coffee, and of course we had plenty of water thanks to the run to the babbling brook.
I took my shift on security which was sitting in a Listening Post/Observation Post (LPOP) a few hundred meters to the rear of our PB for a few hours being quiet, listening, and — you guessed it — observing. It was the usually tearful boredom save for the herd of Caribou that went meandering some 700 meters out. I had binos hanging around my neck tucked just inside my jacket which made for a closer pleasing eyeful of the herd.
When I was relived, I headed back to the PB and helped build the explosive cutting charges to take down the RF tower. We didn’t want to build those forward in the hide sight because it’s bad policy to plan on doing any work in a hide site other than shutting-up, being still, and freezing.
To cut the cylindrical steel at the base of the tower we built Diamond charges — shaped like an elongated diamond and duel-primed on both ends of the short axis with blasting caps:
(Diamond High-Explosive Steel Cutting Charge [photo courtesy of the author])
C-4, in simple block form, made up the two other charges that were to cut the support cables. Our plan was to tie all three charges in together so they would detonate as near simultaneous as possible. I caught a slight whiff of burning time fuse. Another team was calculating the burn time of the fuse. They cut a length of fuse, burned it, and timed the burn so they would know how long of time fuse they needed to give us three minutes to get away from the tower once the fuse was ignited.
Gosh, a breeze picked up and as God is my witness I saw a piece of paper blow by that looked like a page out of cryptography One-Time Pad (OTP)… and it was! I lunged to grab it. Our Commo Sergeant must have been in the process of encrypting his next message transmission to our Forward Operating Base (FOB) in Anchorage.
I moved to his location and sure enough he was shacking up a message:
“Hey, dick… think you’ll need this?”
“Wha… woah — where did you get that??”
“Oh… it just kinda came blowing by.”
“Bullshit! Gimme that!!”
He snatched it up, struck up a lighter under it, and burned it — a thing he was supposed to do before he ever laid it down.
“Here, sign this, dick!”
He passed his his burn log for my signature as a witness to the burning of the crypto page. He was the best commo man I ever knew, just had some housekeeping issues. He set to constructing his quarter-wave doublet antenna; in those days we used the High-Frequency bandwidth (3-30 MHz) and bounced our radio signal off of the ionosphere. He needed to cut his antenna length to match the frequency he was going to transmit on.
(An example of a crypto One-Time Pad [OTP] page [photo from the author])
I find it interesting that the Army has not used the HF band for such a long time, depending on satellites and Internet for most of its communication. Now days, satellites are being targeted for disruption, and the military is actually going back to the dependable HF band for backup communications. It was used during the Russian mercenary Wagner Group attack on U.S. troops in Syria; that battle ended in some 250 dead Russians.
Departing our patrol base, we slipped along tundra quietly to our hide sight. When we got close, we could occasionally spy the RF tower target through openings in the bush. Team Daddy halted us and laid us down while he moved forward with an Engineer Sergeant to have a reconnaissance of the terminal hide area.
He was gone long enough for us to get to freezing again. He lead us into the area where we laid down and established our hides: we stretched camouflage nets out low to the ground. We spread foliage on the top and sides were also covered up. Once inside, there was only enough room for two men to lay prone.
To our front was an open field of some 100 meters by 75 meters. We were just back off of the edge of the field where the men on watch could see the tower and the support corollary building. It was concrete with a pickup truck parked near the door — someone, likely a technician or maintenance person, was in there.
It was time to be cold for the next 24 hours. I went out with our commo man to help him construct an antenna and make his commo shot. He couldn’t do it from our hide site; we had to push back to the rear a thousand meters and sneak that transmission back to the FOB. It was great to be up out of the hide and moving around.
Twenty-four hours later we tore down our hides and packed up our rucks. Leaving the rucks behind, we took six pipe-hitters — half of our Green Beret detachment — and crept through the field ahead toward the tower. The other six pipe-hitters surrounded the target tactically establishing security for the demolitions teams. One of the security teams was blocking the access road incase the pickup returned, upon which they were to pull him out of the vehicle and detain him until the target was destroyed.
Our diamond charge went on smoothly and I paid out lengths of explosive det cord to the cable teams. All went together without a blunder. We collapsed back to our hide site leaving one man to tie in and fire the charges. Security remained in place. Team Daddy was glancing at his watch often, then finally lifted his hand-held radio:
“Bergie, this is Tango Lima, over…”
“Tango Lima, this is Bergie, ready to fire, over…”
“Bergie, stand by to fire in fife, fo-war, tree, two, one — fire!”
Even from our distance we heard the faint *pop* of the two M-60 fuse igniters fire. After about a nervous minute we witnessed brother Bergie, the trigger man, approaching quietly. He had stayed a little while to make sure he had a good fuse burn. I admired his dedication in that instance. He went to his ruck and laid to wait with the rest of us.
Team Daddy in typical fashion was observing his watch and called over his hand-held to the security teams:
“Standby for detonation in fife, fo-war, tree, two, one…”
And there came an ear-splitting *CCCRRRRAAAACCCCCKKKKK* of high-order C-4 expanding at 24,000 feet per second followed seconds later by a ground-shaking cacophony of steel slamming onto the ground with sheiks and groans of twisting steel.
“Security, collapse to hide site,” Team Daddy called out, followed seconds later by the panting pipe-hitters from the security perimeter. We threw on our rucks and stepped out smartly some 90 degrees from our original target approach azimuth.
(Destroyed tower [photo courtesy of the author])
Approximately 20-minutes into the walk, our Senior Medic pulled Team Daddy aside for some bad news; he had left his hand-held radio back at the hide — major blunder. How could we possibly return to the target so soon after destruction? We simply had to, that was is just the way it was.
Team Daddy had the men form a PB while he, the medic, and I went back for the radio. The sun had been steadily dropping lower to the horizon. Dark would be to our advantage as we swung around to make our approach to the hide site from the bush rather than the open field.
Doc found his radio immediately once we got there. There were a number of first responder vehicles scattered around the ruined target site with men milling around. We scampered like rabbits back in the direction of the patrol base. With Team Daddy up front and me walking in back, Doc from the middle kept turning around looking with awe on his face.
“What’s the deal, Doc?” I finally had to ask him.
“It’s going back up! The sun is… it’s going back up! It dropped low but it never went below the horizon and I swear to you its going back up now!!”
“Well, yee-haw, Daktari… so you saw it too, yeah? You saw the sun not set — was that cool or what??”
(“It dropped low but it never went below the horizon and I swear to you its going back up now!!”
Dr. John Paul Stapp earned the title “the fastest man on Earth” when he rode the Sonic Wind I rocket-propelled sled at the Holloman High Speed Test Track at Holloman Air Force Base, New Mexico, on December 10, 1954, to a land speed record of 632 mph in five seconds.
He sustained the greatest recorded G-forces endured by man, decelerating in 1.4 seconds, which equaled 46.2 Gs, more than anyone had previously undergone.
When he was pulled from the sled, Stapp’s eyes flooded with blood from bursting almost all their capillaries. Stapp was rushed to the hospital, worried that one or both of his retinas had detached and would leave him blind. By the next day, he had regained enough of his normal vision to be released, though his eyesight would never be the same.
(U.S. Air Force photo)
More than 50 years later, the Holloman High Speed Test Track at Holloman still exists, but its riders have changed. Stapp was the last human to ride the track and now egress missions use highly instrumented mannequins to look at what loads are and then determine whether or not aircrew survivability was achieved.
“With a human you’re going to have to conduct a post-testing examination and then look at variables from human to human, where if you can put all the instrumentation on board a mannequin you can get all that data,” said. Lt. Col. Jason Vap, commander of the 846th Test Squadron at Holloman AFB. “You can take that one step further and figure out what you need to do to your seat design, or perhaps a helmet design, or your flight gear to mitigate problems. Those are things that you are only going to get from a highly instrumented mannequin. Not from post-test examination of an individual or examining what kind of pains that they suffered from that.”
(Photo by Tech. Sgt. Perry Aston)
The data is collected with a variety of onboard data acquisition systems or telemetered for post-test analysis. Additionally, technical imagery, including high-speed digital images, is available for scientists to examine the status of their payloads. Track personnel use the same imagery to determine the status of the sled vehicle during tests. All data can be post-processed and merged using a common time reference to verify the accuracy of the data, and to produce a unified data product.
“We’re always pushing to open up new capability fronts. Thinking differently,” he said. “It’s built into our culture to think about those next steps. What do we need to do? How do we refine things? How do we look at problems differently based upon what we learn out of a mission outcome? So it’s a constant learning process here.”
At 10 miles, the track is also now the world’s longest and it is used to test high-speed vehicles such as aircraft ejection seats.
(Photo by Tech. Sgt. Perry Aston)
“The Holloman High Speed Test Track hearkens back to the 1950’s,” Vap said. “The mission has changed over time and the track has grown over time, from 3,500 feet to now 50,000 feet of rail.”
With the current track, the 846th TS has reached velocities in excess of 9,000 feet per second. That is around Mach 8.6 when calculating for altitude. However, the goal speed of Mach 10 has yet to be reached.
“We’re going for success, but there’s still a lot of territory to be explored and to learn from,” Vap said.
Test missions on the track last a few seconds; however, there are weeks, if not months, put into the design effort, fabrication and getting prepped for a test. There are a litany of cameras along the track to make sure that everything is captured in a six-, 10- or 30-second test mission.
(Photo by Tech. Sgt. Perry Aston)
“We design the sleds, we fabricate them and we load them on the rail,” Vap said. “Prior to that work, we look at the velocity profiles … We look at our rocket motor inventory and we put together the payload necessary to reach the velocities that are needed to carry out the test mission.”
“But don’t kid yourself. It’s not a small measure,” he added. “It takes a great deal of engineering staff and a lot of hard work to carry out these missions, on the order of weeks to months to prep for a 10 second shot.”
The goal of these tests is to wring out some of the potential problems that could exist in an airborne environment.
“We don’t just slap something on a jet and hope it works,” Vap said. “Those are things that just aren’t done from an operational standpoint. You have to verify that it’s going work.”
This means failure is inevitable. Not everything is going to be a success and what Vap tells everyone is that you learn more out of your failures than your successes.
“We’re in the business of saving lives,” said Staff Sgt. Brian Holmes, Egress Craftsman, 846th TS. “Our system isn’t used as frequently as most, which is a very positive thing. Being able to come out in this environment and actually test [an ejection seat] and see it operate is pretty exciting.”
(Photo by Tech. Sgt. Perry Aston)
Vap said there is no bigger “cool factor” in the Air Force than what the HHSTT does on a day-to-day basis. There is no other place in the Air Force that is essentially strapping rocket motors to a sled, pushing payloads down the track at flight relevant velocities and excess.
While the track’s passengers are no longer flesh and blood, they are still pioneers – of speed, science and safety. And their contributions to the high speed test track are making the goal of Mach 10 more and more a reality.
While much of the world’s attention is focused on Russia’s push for a fifth-generation fighter, the PAK-FA or Sukhoi Su-57, much less attention is being paid to another design bureau – Mikoyan-Gurevich, better known as MiG (as in the plane whose parts get distributed forcefully by the Air Force or Navy). What have they been up to, besides developing the MiG-29K?
Well, according to The National Interest, to meet Russia’s PAK-DA requirement, MiG is trying to develop a for-real version of the X-wing fighter from Star Wars or the Colonial Viper from either iteration of Battlestar Galactica. The plane is called the MiG-41, and it is a successor to the MiG-31 Foxhound, which succeeded the MiG-25 Foxbat.
The MiG-25 and MiG-31 were both known for their speed. According to MilitaryFactory.com, the MiG-25 was capable of hitting Mach 3.2, almost as fast as the SR-71 Blackbird. Its primary armament was the AA-6 Acrid, which came in radar-guided and heat-seeking versions. The Foxbat was exported to a number of counties, including Libya, Iraq, and Syria. Some claim that it scored an air-to-air kill against a Navy F/A-18 Hornet in Desert Storm.
The MiG-31 was an upgraded version. According to MilitaryFactory.com, it was about 300 miles per hour slower than the MiG-25, but it featured a much more powerful radar and the AA-9 Amos missile. The Foxhound is still in service, and Russia relies on it to counter the threat of America’s bombers.
The MiG-41, though, will be a huge leap upwards and forwards. Russian media claims that this new interceptor will be “hypersonic” (with a top speed of 4,500 kilometers per hour), and will carry hypersonic missiles.
You can see a video discussing this new plane below. Do you think this plane will live up to the hype, or will it prove to be very beatable, as past Soviet/Russian systems have?
A former medic with the 3rd Special Forces Group (Airborne) that heroically fought his way up a mountain to render aid to his Special Forces teammates and their Afghan commando counterparts will receive the Medal of Honor.
The White House announced Sept. 21, 2018, that former Staff Sgt. Ronald J. Shurer II went above and beyond the call of duty April 6, 2008, while assigned to Special Operations Task Force – 33 in Afghanistan during Operation Enduring Freedom. He will receive the highest military award for valor at a White House ceremony, Oct. 1, 2018.
In April 2008, Shurer was assigned to support Special Forces operators working to take out high-value targets of the Hezeb Islami al Gulbadin in Shok Valley.
As the team navigated through the valley, a firefight quickly erupted, and a series of insurgent sniper fire, rocket-propelled grenades, and small arms and machine gun fire forced the unit into a defensive fighting position.
Staff Sgt. Ronald Shurer II graphic.
Around that time, Shurer received word that their forward assault element was also pinned down at another location, and the forward team had sustained multiple casualties.
With disregard for his safety, Shurer moved quickly through a hail of bullets toward the base of the mountain to reach the pinned-down forward element. While on the move, Shurer stopped to treat a wounded teammate’s neck injury caused by shrapnel from a recent RPG blast.
Staff Sgt. Ronald J. Shurer II.
After providing aid, Shurer spent the next hour fighting across several hundred meters and killing multiple insurgents. Eventually, Shurer arrived to support the pinned down element and immediately rendered aid to four critically wounded U.S. units and 10 injured commandos until teammates arrived.
Soon after their arrival, Shurer and his team sergeant were shot at the same time. The medic ran 15 meters through a barrage of gunfire to help his sergeant. Despite a bullet hitting his helmet and a gunshot wound to his arm, Shurer pulled his teammate to cover and rendered care.
Medal of Honor.
(US Army photo.)
Moments later, Shurer moved back through heavy gunfire to help sustain another teammate that suffered a traumatic amputation to his right leg.
For the next several hours, Shurer helped keep the large insurgent force at bay while simultaneously providing care to his wounded teammates. Shurer’s actions helped save the lives of all wounded casualties under his care.
Shurer also helped evacuate three critically wounded, non-ambulatory, teammates down a near-vertical 60-foot cliff, all while avoiding rounds of enemy gunfire and falling debris caused by numerous air strikes.
Further, Shurer found a run of nylon webbing and used it to lower casualties while he physically shielded them from falling debris.
Shurer’s Medal of Honor was upgraded from a Silver Star upon review.
In the 1980s, the U.S. Army needed to be able to rapidly deploy a sizable force to face off against heavy forces. But that requirement created two problems: Most light forces were little more than speed bumps against tanks, and it took a long time to deliver a heavy force – and their supplies – to a likely theater outside of Europe or South Korea. So the Army began to explore ways to create a light force that could hold its own.
Enter the 9th Motorized, a force that proved it’s utility in several big exercises during the mid-1980s, most notably in Border Star 85 when the 3rd Armored Cavalry Regiment lost badly to the 3rd Brigade of the 9th Motorized. The Army’s strategy seemed to be playing out in a good way.
But a change at the top of the Army detoured the promise of the 9th. The new Army Chief of Staff favored the light infantry division concept over the motorized division. Ultimately, four active light infantry divisions (the 6th, 7th, 10th Mountain, and 25th) were formed, with one more, the 29th, in the National Guard. Later, the 9th, as well as the 6th and 7th Infantry Divisions, were deactivated after the fall of the Berlin Wall as the budget ax fell.
The 9th Infantry Division first made use of Fast Attack Vehicles; basically, souped-up dune buggies that special operations units had used during Desert Storm. The Army later went with the M1114 High-Mobility Multi-Purpose Wheeled Vehicle, or HMMWV.
The signature tool used in the front-line battalions was the Mk 19 automatic grenade launcher. With a range of almost 2500 yards, the Mk 19 could send one grenade a second onto a target. The grenade blasted lethal fragments 50 feet from the point of impact. The Mk 19 was also able to take out light armored vehicles. While it might not have been enough to take out a BMP or T-72, the Mk 19 could wreak havoc on supply convoys or rear-area headquarters units. Depending on the table of organization and equipment, a front-line battalion with the 9th Motorized could have had almost 100 of these powerful weapons.
The 9th Motorized also made heavy use of the BGM-71 TOW missile to deal with the threat posed by tanks and infantry fighting vehicles. The TOW had a reputation as a reliable tank-killer, with a range of almost two and half miles and a 13-pound warhead. The TOW provided a heavy punch when the Army decided not to use a ground-launched version of the AGM-114 Hellfire. Infantry assigned to the 9th Motorized also made use of the FGM-77 Dragon anti-tank missile. With a range of just under a mile, the Dragon added to the firepower of the division, despite its drawbacks.
Would something like the 9th Motorized Division’s organization work today? With the FGM-148 Javelin, and the development of lightweight UAVs, it may be worth bringing back the concept – particularly in the fight against ISIS.
When you hear the word “military,” without a doubt your mind paints a very specific picture. It may involve weapons, it may have a few brush strokes of physical training, but there is one part of the picture that is simply inescapable: the uniform.
For most of America, the picture is painted for you through media glamorization – and no uniform has been more glamorized than the USMC Blue Dress A!
That thing is absolutely f*cking beautiful and for those of us that don’t get the privilege to don that glorious masterpiece it can leave us quite envious – but the greatness of the Blue Dress A cannot be argued.
The Marine Corps has authorized everyone ranked E-4 and above to wear some type of sword. Non-commissioned officers are issued the NCO sword while officers get the Mamaluke sword.
The only sword I ever saw in the Air Force looked like it belonged on Final Fantasy VII.
4. Women love it.
The Blue Dress is downright sexy. It’s tailored to the individual Marine like a fine cut Italian suit. It’s so beautiful that it is considered equivalent to a civilian black tie affair.
3. It’s way cooler than ours.
I’m 100% sure you’ve seen the USMC blue dress. It is insanely popular. It’s literally the uniform you conjure up in your head when you think “military.”
I’m also pretty sure you have no idea what the Air Force equivalent looks like. Just think this: 1960’s flight attendant.
2. It’s iconic.
As I stated, the blue dress is literally the picture we have in our head of “military.” It is one of the most recognized symbols of the American military. Ever. It’s damn near a celebrity all by itself!
On the streets of Long Beach, California, a new restaurant has opened where a quadriplegic Navy veteran focuses on hiring other disabled people — especially veterans — to staff the business.
Daniel Tapia, the owner of the restaurant 4th and Olive, told Fox LA, “I’m referred to what’s known as a walking quad, a high functioning quadriplegic. So, I can walk and move but I have a limited strength and feeling in my hands and feet.”
Tapia was a sommelier at another southern California restaurant until he was fired in 2014. Short on employment opportunities and hopeful that he could fight disability discrimination, he decided to launch his own establishment that would provide job opportunities for other disabled veterans.
Some of the vets, like Air Force veteran and bartender John Putnam, are fighting physical battles, but the restaurant also hires people with PTSD and traumatic brain injuries.
Co-owner and chef Alex McGroarty told Fox that the veterans are great employees.
“They work really hard,” he said. “If they’ve had a little trouble in the past, they are going to be really loyal and work hard for you.”