The Electromagnetic Aircraft Launch System (EMALS) is a slingshot on steroids.
Compared to steam catapults, the new launch system is lighter, smaller and requires less maintenance while increasing controllability, reliability, and efficiency, according to the Naval Air Warfare Center. The system is designed tolaunch up to 25 percent more aircraft – manned or unmanned – with greater precision.
By eliminating the use of steam, the EMALS system may contribute to the quality of life for sailors sleeping below decks. “The water brake has been removed, so from that perspective, the [catapult] will get quieter,” said Donnelly in an interview with Defense Media Network. “You’ll continue to hear the shuttle noise, jet blast deflectors and hooks hitting the flight deck in the arresting gear area.”
The EMALS system is over 15 years in the making. The system was tested from land-based sites, but this video shows the system being tested from the pre-commissioned USS Gerald R. Ford (CVN 78).
When the Red Army crossed the border into Finland in 1939, along with them came a battalion of remote-controlled tanks, controlled by another tank some 1000 meters behind them. Along with the usual heavy armaments, the tank drones shot fire from flamethrowers, smoke grenades, and some were even dropping ticking time bombs, just waiting to get close to their target.
It’s a surprising technological feat for a country that had only just recently undergone a wave of modernization.
The Soviets had this remote technology in its pocket for a decade, having first tested the tanks on a Soviet T-18 in the early 1930s. While the earliest models were controlled with a very long wire, the USSR was soon able to upgrade to a more combat-friendly radio remote. By the time the Nazis invaded the Soviet Union in June 1941, the Red Army had two battalions of the drones, which it called teletanks. At this time, the teletank technology was in Soviet T-26 tanks, called the Titan TT-26, and there was a big list of tanks, ships, and aircraft on which the Soviets wanted to equip with tele-tech.
Unfortunately, the TT-26 wasn’t able to fully participate in the Soviet Union’s Great Patriotic War. In the beginning of Operation Barbarossa, Hitler’s Luftwaffe was able to destroy the vast majority of the Red Army’s TT-26 teletanks. In the months that followed, it proved to be more economical and timely to produce a regular version of the T-26 and man them with human crews.
T-20 Komsomolets Teletanks
It would have been unlikely that the teletank technology would have made the difference on the Eastern Front of World War II anyway. They were notoriously unreliable in unfamiliar terrain and were easily stopped by tank spikes. If a teletank managed to outpace the range of its controller, it simply stopped and did nothing. The Soviets mitigated this by mining the hatches of the tanks, but an inoperative tank is still not very useful to the Allied cause.
Eventually, the USSR’s remaining teletanks were converted to conventional tanks in order to join the fight against the Nazis. Perhaps the emerging technology of the time was an interesting aside for military planners before the war, but the fun and games must stop when you have to start fighting for survival.
When you hear the word “jetpack,” you picture someone zooming through the sky like the Rocketeer. But DARPA and Arizona State University’s version of the jetpack is a complete let down.
“We’re not able to fly with our jetpack,” said graduate engineer Jason Kerestes, in a video from Arizona State University. “We have instantaneous thrust and we can pretty much trigger it to allow for faster movement and agile motions.”
The pack is designed to enable troops to run a mile in four minutes, but it doesn’t look like they’re quite there yet. At 3:07 of the video, the engineers say to a runner that his time improvement with the jetpack was only three seconds.
After America dropped the atomic bombs at Hiroshima and Nagasaki, it became clear that warfare had changed. America stopped building some conventional weapons of war, including tanks, relying on the new weapons to guarantee peace. Meanwhile, the Soviet Union was working on two new, important weapons of war: their own atomic bombs and tanks that can protect a crew through the blast.
The T-54 had a massive gun that surprised its contemporaries in the 1950s, but it predicted the rise of the modern main battle tank.
(ShinePhantom, CC BY-SA 3.0)
The Soviet Union didn’t have the resources to compete with America tank for tank and bomb for bomb worldwide, but they did hope to control as much of Eurasia as possible, and they knew this would result in a clash along the borders of the Warsaw Pact and Western Europe.
The Soviet military leadership wanted to know that, even if a tactical nuclear exchange went down, they would be able to fight through the aftermath. That meant that their tank crews needed to be lethal, protected from anti-tank weapons, but also isolated from nuclear fallout.
The T-54B was already an impressive tank, first rolling off the line in 1949. It was simple to operate, relatively cheap for a main battle tank, and well-balanced. The Soviets and the partnered nations that would go on to buy export version of the tank saw it as a successor to the T-34, the most produced tank of World War II.
But the tank was more accurately a descendant of the T-44, a tank with a gun so big that firing it would wear down the transmission. The increased firepower in the T-44 and, later, the T-54, would be necessary in tank-on-tank combat on any Cold War battlefield.
But the early production T-54s still had plenty of faults, and tank designers improved the platform throughout the 1950s. The T-54A and T-54B introduced upgrades like wading snorkels, fume extractors, and an upgraded gun called the D-10TG. The T-55 was designed with all the knowledge and upgrades from the T-54’s development. The T-55 would be lethal right off the starting block. But being a lethal medium tank isn’t enough to survive nuclear war.
A Slovenian M-55, a highly modified T-55 medium tank.
(MORS, CC BY 3.0)
Believe it or not, the primary systems of a tank in the 1950s were about as survivable as they could be from the bomb. Obviously, no tank could survive at ground zero of a nuclear bomb, but it would be possible for a tank to survive the blast near the borders of the area affected. After all, the armor is designed to survive a direct hit from a fast-flying, armor penetrating round at any given point. An atomic bomb’s blast is more powerful, but it’s spread out over the entire hull and turret.
And so the designers figured out how to overpressure the tank, creating higher pressure within the tank so that all of the little leaks in the armor were pushing air out instead of allowing it in. And the crew compartment was covered in an anti-radiation lining that would reduce radiation traveling through the hull. Finally, a filtration system cleared incoming air of debris and then pumped it into the crew cabin, allowing the crew to breathe and making the overpressure system work.
Again, none of this would make the crew immune from the effects of a bomb. The blast wave could still crush the hull and burst blood vessels in the brains of the crew. The heat wave could still ignite fuel and fry the people inside. Worst of all, plenty of radiation could get through and doom the combatants to deaths of cancer.
But the crew would likely survive to keep fighting, and had some chance of a decent life after the war if they made it. For a few years, at least.
The T-54 and T-55 went on to become the most-produced tanks in world history, but luckily the T-55 adaptations were never actually tested in combat. It and the British Centurion would undergo testing for nuclear blasts. They survived, but you really didn’t want to be inside when the blast hit.
The Object 279 heavy tank was designed for nuclear warfare, but it never went into production due to its high weight.
But it wasn’t to be. Soviet leader Nikita Khrushchev thought it was time to relegate heavy tanks to the dustbin of history, and he won out. Object 279 and most other heavy tank designs were cast out, leaving the path open for the lighter T-55 medium tank.
‘Tis the season for the giving of gifts. ‘Tis also the season of FOMUG (Fear Of Messed Up Gifting). We get it. It’s hard out there for an elf. Team WATM would like to offer you some guidance.
For the Most Interesting Man in the World or your beard-curious buddy:
~the brand of whisker oils created and prefered by Special Ops ~
Beard Oil, made by and for h-to-G* operators. (*honest-to-God — was that clear or unclear? Just wanna know for future use…)
Nicholas Karnaze is a man-lotion mixologist. A master craftsman of oils for beards. With his company, stubble ‘stache, he works to single-handedly elevate grooming standards for the bewhiskered gentlemen of the civilized world. How did this happen? How did Karnaze come to be your chin-wig’s Furry Godfather?
In 2012, Karnaze was a retired Marine Special Operator adjusting to civilian life, when he got the call that everybody fears. His close friend and fellow Raider, Sgt. Justin Hansen, had been killed in combat in Northwest Afghanistan.
Five stages of grief notwithstanding, everybody deals with the death of a comrade differently. For Karnaze, honoring Justin meant, among other things, forsaking the razor and letting his facial hair fly free and easy until the funeral. Justin was, himself, the proud owner of a truly mighty war beard. Karnaze’s gesture would prove to be both fitting tribute and an unexpected path forward.
Karnaze found that civilian #beardlife suited him. But the growth process was no picnic and there didn’t seem to be anything available to help him curb the itchiness or tame the unruliness of his rapidly maturing man-mane. So he improvised.
“I have fond memories of standing in my kitchen watching AMC’s Breaking Bad. Walt was making meth and I was making beard lotion.”
And when his Special Ops buddies caught wind of his efforts and started bugging him for samples, the cycle was complete and Heisen-beard was off to the entrepreneurial races.
These days, stubble ‘stache isn’t so much tending to individual beards as it is grooming a movement. Nobody’s saying you have to man-sprout a thick, bushy jowl-pelt in order to be awesome, much less masculine. The military has grooming standards for a reason and the squared-away men and women of the United States Armed Forces have been holding it down on Planet Earth for years now.
But if you are going to forge a path through the rich, peety byways of beardlife, all Karnaze is saying is, let him teach you how to show that mug-rug the respect it deserves. But most important of all–and this is evident in his company’s ardent financial support of organizations like the Marsoc Foundation – Karnaze wants warriors suffering from combat trauma of any kind to understand that a crucial aspect of masculinity–of awesomeness in general–is the willingness to ask for help.
The 2017 We Are The Mighty Holiday Gift Guide is sponsored by Propper, a tactical apparel and gear company dedicated to equipping those who commit their lives to serving others. All views are our own.
Speaking of Propper, they’re giving away twelve tactical packs filled with gear from our Holiday Gift Guide. Click this link to enter.
For the last three years, engineers and project officers from Marine Corps Systems Command have descended on the island of Oahu to put new technology to the test.
In the fall, MCSC — along with Marines from the 3rd Marine Regiment and partner organizations from the requirements community — conducted the “Island Marauder” technology demonstration to integrate and evaluate emerging technologies with existing Marine Corps gear to help inform future capability decisions for the Corps.
“We conducted the Island Marauder technology demo to see if mature but leading edge command and control technologies work when we integrate them with our fielded systems,” said Basil Moncrief, Networking-on-the-Move team leader at MCSC. “We also wanted to see what fleet Marines thought about the emerging technology. [Island Marauder] helps Headquarters Marine Corps and the Marine Corps Tactics and Operations Group validate that the emerging technology supports or enhances the latest warfighting tactics and strategies they want to pursue.”
Marines use an armored vehicle equipped with the Networking-on-the-Move satellite communication system during the Island Marauder Technology Demonstration.
(U.S. Marine Corps photo)
The demonstration included one week of intensive, hands-on field engineering and system integration, and a second week of VIP demonstrations. Most of the tactical command and control — or C2 — capability was integrated into a battlefield network controlled through the 3rd Marines’ Networking-on-the-Move Systems. NOTM is a vehicle-mounted satellite communication system that extends C2 for commanders and their staffs while on the move and beyond line of site at the tactical edge.
Developed by MCSC, NOTM has been fielded to all three Marine Expeditionary Forces.
“One of the powerful elements of the Island Marauder demonstration is a challenging tactical scenario that requires insertion of new technology and warfighting approaches while using currently-fielded equipment and fleet Marine operators,” Moncrief said. “The 3rd Marine Regiment gives us extremely useful information during Island Marauder that influences engineering, sustainment and user interface. This, in turn, assists HQMC with advanced concepts and out-year planning.”
During one demo, Marines on the ground used NOTM to simulate calling in air strikes and a medical evacuation — a feat that had not been successfully performed with live aircraft in past demonstrations.
Island Marauder also enables MCSC to perform integration engineering, troubleshoot any related issues and train Marines on how to use new equipment, Moncrief said.
“This year, we brought in some other MCSC programs that have a direct relationship with NOTM,” he said. “For example, the project officer for Identity Dominance Systems-Marine Corps recognized early on that NOTM could be a game changer for that program.”
“When Marines downrange encounter a person of interest, they use IDS-MC to collect biometric data,” said Teresa Sedlacek, lead engineer for Identity Operations at MCSC.
A Marine from the 3rd Marine Regiment uses a Marine Air-Ground Task Force Common Handheld to call for simulated casualty evacuation during the Island Marauder Technology Demonstration.
(U.S. Marine Corps photo by Sgt. Jesus Sepulveda Torres)
Typically, Marines then have to get to a forward operating base or Combat Operations Center to download the information to receive feedback on submissions, she said. During Island Marauder, the demonstration team successfully connected IDS-MC wirelessly with NOTM, which enabled them to receive data retrieval and feedback almost immediately.
“That’s the kind of thing that’s important to us on the Island Marauder Team because it improves combat capability for other programs and for the Marine operating forces,” Moncrief said.
The command also demonstrated the ability to integrate the Marine Air-Ground Task Force Common Handheld — or MCH — with NOTM, the Joint Tactical Common Operating Picture Workstation and Target Handoff System II. The MCH is a handheld C2 program that enables dismounted Marines to use tactical software applications on commercial handheld computing devices while securely accessing higher-level C2 systems for data, services and tactical sharing.
“Island Marauder 2018 was invaluable in generating user feedback for follow-on development and helping to inform future programmatic purchases,” said Maj. Travis Beeson, MCH project officer at MCSC. “Island Marauder continues to be MCH’s go-to event to demonstrate interoperability with other MCSC systems and to assess innovative developments in a tactical relevant environment.”
Other programs and technologies that were part of the Island Marauder demonstration included the Secure Tactical Terminal and secure wireless networking techniques.
“Since the beginning, Island Marauder has been super useful in helping us push the envelope for technology exploitation,” Moncrief said. “As C2 technology continues to accelerate and Marine warfighting strategies adapt to new challenges, we need to show decision-makers some potential match-ups demonstrated together. In this way, Island Marauder enables a better understanding of the near-term possibilities by integrating new technologies with existing capabilities.”
Planning for Island Marauder 2019 is already in progress with the focus on joint C2 and disconnected operations.
Training has evolved over the years but the core elements have always remained the same. There’s an instructor and a bunch of students. They go over material, both in theory and in practice, mastering the skills required by the job. But no matter how good the teacher, students will always need a refresher from time to time. So, that means it’s time to go back to school — or does it?
Now, mixed-reality technology — including smart glasses — could change the way sailors learn the skills they need to serve.
At the 2018 SeaAirSpace Expo in Maryland, we got a chance to see the glasses that just might change the face of training for sailors — and, eventually, all other military personnel.
Sailors remove a steam-powered catapult chamber on the flight deck of the aircraft carrier USS Nimitz (CVN 68). Augmented reality could help train sailors to perform such maintenance tasks.
(U.S. Navy photo by Mass Communication Specialist 3rd Class Christopher Jahnke)
A demo program showed how (in real-time) to disassemble a diesel engine. All nineteen steps were shown on the glasses, which rested (a bit heavily) on the nose. The smart glasses in use were Microsoft HoloLens, which work with Windows 10. As the operator worked on the engine, they used voice commands to cycle through the steps displayed, easily allowing trainees to learn as they work.
This new technology, known as Augmented Reality Training, could go far beyond just training sailors on maintenance tasks. Having a few pairs of goggles available while doing maintenance, however, will help keep every single step of a complicated process fresh in the mind of the technician. Anyone who’s dealt with assembling IKEA furniture can relate — wouldn’t it be nice if you didn’t have to drop everything to reference the manual every step? Cheap furniture is one thing, but forgetting a step when doing work on an Arleigh Burke-class guided-missile destroyer in the middle of the Indian Ocean can lead to disaster.
Gas Turbine System Technician (Mechanical) 1st Class Jordan Urie, assigned to Assault Craft Unit (ACU) 5, performs corrective maintenance on the aft transmission system of Landing Craft, Air Cushion 31. Imagine if he could see how to disassemble and re-assemble the system while working.
(U.S. Navy photo by Mass Communication Specialist 2nd Class Adam Brock)
With Augmented Reality Training, the classroom can be taken out to sea. Even though most ships have the manuals nearby, this technology is a huge step forward in blending theoretical and practical education.
In short, technology could very well make it easier not only to train sailors before they go out to sea, but it may also help them keep their skills fresh at sea. That is a very good thing.
Haka, (Maori: “dance”) Maori posture dance that involves the entire body in vigorous rhythmic movements, which may include swaying, slapping of the chest and thighs, stamping, and gestures of stylized violence. It is accompanied by a chant and, in some cases, by fierce facial expressions meant to intimidate, such as bulging eyes and the sticking out of the tongue. Though often associated with the traditional battle preparations of male warriors, haka may be performed by both men and women, and several varieties of the dance fulfill social functions within Maori culture.
This video shows the soldiers of 2/1 RNZIR Battalion performing their unit haka as a final farewell to their fallen comrades:
During the initial invasion of Iraq on March 25, 2003, then-1st Lt. Brian Chontosh responded to an enemy ambush on his convoy in a way most would expect to see only in a Hollywood action movie. After being attacked by Iraqi forces with mortars, automatic weapons, and rocket-propelled grenades — and caught in the kill zone — Chontosh directed his driver to go straight toward the enemy position as his .50 cal gunner fired.
But wait, there’s more. From his citation for the Navy Cross, the nation’s second-highest award:
He then directed his driver into the enemy trench, where he exited his vehicle and began to clear the trench with an M16A2 service rile and 9 millimeter pistol. His ammunition depleted, First Lieutenant Chontosh, with complete disregard for his safety, twice picked up discarded enemy rifles and continued his ferocious attack. When a Marine following him found an enemy rocket propelled grenade launcher, First Lieutenant Chontosh used it to destroy yet another group of enemy soldiers.
“I was just doing my job, I did the same thing every other Marine would have done, it was just a passion and love for my Marines, the experience put a lot into perspective,” Chontosh told Marine Corps News at his award ceremony.
When it was all over, Chontosh had cleared 200 meters of the enemy trench, killed more than 20 enemy soldiers, and wounded several others. Still, he didn’t want to take all the credit — instead commending the Marines with him that day for saving his life.
“They saved my life, multiple times that day, during the ambush,” Chontosh told Stripes. “That’s all them. If it wasn’t for them, I would be the lieutenant who would be reported as … a case of what not to do.”
Do you know someone we should highlight for the next Warrior Wednesday? Email us info [at] wearethemighty.com with their name, rank, award received, and any other information you think is relevant.
The Arleigh Burke-class guided-missile destroyer USS John S. McCain (DDG 56) completed her necessary repairs and is underway to conduct comprehensive at sea testing.
During the at-sea testing, the ship and her crew will perform a series of demonstrations to evaluate that the ship’s onboard systems meet or exceed Navy performance specifications. Among the systems that will be tested are navigation, damage control, mechanical and electrical systems, combat systems, communications, and propulsion application.
John S. McCain, assigned to Destroyer Squadron FIFTEEN (DESRON 15) and forward-deployed to Yokosuka, Japan, completed her in-port phase of training, and will continue Basic Phase at-sea training in the upcoming months to certify in every mission area the ship is required to perform and prepare for return to operational tasking.
“The USS John S. McCain embodies the absolute fighting spirit of her namesakes, and shows the resiliency of our Sailors. She has completed her maintenance period with the most up-to-date multi-mission offensive and defensive capabilities, preparing her to successfully execute a multitude of high-end operations,” said Capt. Steven DeMoss, commander, Destroyer Squadron 15. “As a guided-missile destroyer assigned to Destroyer Squadron 15, the John S. McCain is poised and ready to contribute to the lethal and combat ready forward-deployed naval force in the free and open Indo-Pacific region.”
John S. McCain completed repairs and extensive, accelerated upgrades over the last two years, following a collision in August 2017.
“This whole crew is eager to get back to sea, and that’s evident in the efforts they’ve made over the last two years to bring the ship back to fighting shape, and the energy they’ve put into preparing themselves for the rigors of at-sea operations,” said Cmdr. Ryan T. Easterday, John S. McCain’s commanding officer. “I’m extremely proud of them as we return the ship to sea, and return to the operational fleet more ready than ever to support security and stability throughout the region.”
Multiple upgrades to the ship’s computer network, antenna systems, radar array, combat weapons systems and berthing have ensured John S. McCain will return to operational missions with improved capability and lethality.
John S. McCain, is assigned to Destroyer Squadron (DESRON) 15, the Navy’s largest forward-deployed DESRON and the U.S. 7th Fleet’s principal surface force.
Since man was first able to attach weapons and reconnaissance equipment to planes, the U.S. and its allies have been deploying them into enemy airspace. Known for maintaining air superiority, the U.S. has developed some outstanding aerial technology that has long given allied forces the edge in conflicts.
Sure, not all the planes that we’ve developed over the years have earned a place in the history books, but these well-designed aircraft are so badass that they’ve become household names — or soon will be.
This mass-produced, single-pilot fighter was an essential component in maintaining aerial dominance throughout World War II. This unique plane saw incredible action at the hands of some epic pilots and is responsible for taking down several enemy aircraft during the Battle of Britain.
Powered by a Merlin engine and capable of reaching a maximum speed of 360 miles per hour, the Spitfire could blaze its eight wing-mounted, 0.303-inch machine guns at the touch of a button.
Famous for its central role in Tony Scott’s Top Gun, the F-14 was the Navy’s go-to jet fighter for several decades. Designed as a long-range interceptor, the Tomcat is capable of speeds in excess of Mach 2.
The Tomcat was so well-designed and capable that the Navy had to expressly prohibit pilots from performing five aerial maneuvers. This list of forbidden stunts includes some negative-G maneuvers and rolling with an angle of bank change more significant than 360 degrees — all made possible by the Tomcat’s extreme performance.
This twin-engine, all-weather plane hit top speeds faster than twice the speed of sound using two General Electric J79-GE-17 engines, making it one of the most versatile fighters ever built. Introduced in 1960, the Phantom became famous as it completed missions over the jungles of Vietnam.
The Air Force, the Navy, and the Marine Corps all used the Phantom to test various missile systems due to its well-manufactured configuration.
When a mission requires that the opponent’s air-defense systems be rendered useless so that allied forces can get in undetected, the EA-18G Growler gets called up. This sentinel of the skies is equipped with receivers on each wing tip, which give it the ability to search for radar signals and locate an enemy’s surface-to-air missile systems.
If a threat is detected, the Growler activates one of three jamming pods stored underneath the jet’s centerline. This overwhelms ground radar by sending out electronic noise, allowing coalition aircraft to sneak by undetected.
The Nighthawk was the first aircraft designed to exploit low-observable stealth technology. This sneaky aerial marvel first arrived on the market in 1982 and was discreetly utilized during the Gulf War.
The well-designed aircraft was equipped with a payload of two 2,000-pound GBU-27 laser-guided bombs that crippled Iraqi electrical power stations, military headquarters, and biological, chemical, and nuclear weapons plants.
Lockheed Martin developed the SR-71 Blackbird as a long-range reconnaissance aircraft that could hit air speeds of over Mach 3.2 (2,455 mph) and climb to an altitude of 85,000 feet. In March, 1968, the first operational Blackbird was flown out of Kadena AFB in Japan.
With the Vietnam war in full swing, Blackbird was to conduct stealth missions by gathering photographs and electronic intelligence against the enemy.
When it comes to making good military aircraft, some countries are obvious go-tos. The United States, France, Japan, Russia, and the United Kingdom all immediately spring to mind as creators of classic combat planes. Then, you’ve got some smaller countries, like Israel and Sweden, that have produced some great aircraft. It may be time now to include another country on that list: India.
In some ways, it’s not a surprise. India has built some modern fighters, like the Jaguar and MiG-27, under license from their original manufacturers. They’ve also managed to seriously upgrade their force of MiG-21 Fishbeds. The “Bison” program gave these 1960s-vintage fighters the ability to use modern missiles, like the AA-11 Archer and AA-12 Adder. India’s force of Fishbeds, however, was getting worn out.
India was looking to replace its Fishbeds as far back as 1983. It took quite a while to develop the replacement program, though, and the resulting plane, the Tejas, did not fly until 2001 – after eighteen years of research and development. The plane spent another 15 years getting tested and fixed up for operational service. India had hoped to see this plane emerge as not only something for their air force, but also as an option for their Navy to operate from carriers. The naval version didn’t work out, however, so India bought the MiG-29K.
The HAL Tejas is a delta-wing fighter, bearing a resemblance to planes like the Mirage 2000, the Mirage 5, and the IAI Kfir. It is equipped with the Israeli Elta M-2032 radar, a General Electric F404 engine, and has a two-barrel 23mm cannon with 220 rounds. It can carry both air-to-air and air-to-surface weaponry, including anti-ship missiles. It has a top speed of 1,370 miles per hour and a maximum range of 1,056 miles. An improved version, the Tejas II, will have a more powerful GE F414 engine.
Learn more about India’s latest fighter in the video below.