Carpenter, who received the Medal of Honor last year for jumping on a grenade to save his friend’s life during the battle, told his fellow Marines that “it’s your medal” at a reunion on the five-year anniversary of Operation Moshtarak last week at the National Museum of the Marine Corps.
“With this short amount of time I have to speak to you tonight, I couldn’t possibly sum up the historical battle of Marjah,” Carpenter said in his speech, according to a transcription from Hope Hodge Seck of Marine Corps Times. “I am comforted, though, by the fact that the men in this room don’t need a summary because you were right there beside me. You felt the incredible heat of a 100 percent humidity day and the cool waters of a muddy canal. You felt the weight of 100 pounds of gear, ammo and water at your back, the weight of knowing as Marines we are and forever will be the first line of defense for our loved ones, our nation and above all, freedom.”
The Battle of Marjah involved 15,000 American, Afghan, Canadian, British, and French troops in the largest joint operation up to that point in the Afghan war. The effort to wrestle the key town of Marjah from the Taliban took NATO forces nearly 10 months, according to ABC News.
“I stand here today extremely proud of you all. I’m proud of the job you did in the face of what most cannot even fathom. I am more than honored to call you friends, fellow Marines and brothers,” Carpenter said. “You stand as an example for others and for what’s best for not only our nation but the rest of the world.”
In his speech, Carpenter did not reference his incredible example from Nov. 21, 2010, when he jumped on a grenade while providing rooftop security at a small outpost. “I only remember a few moments after I got hit,” Carpenter told me previously when I interviewed him for Business Insider. “But nothing before.”
He was severely wounded — as was his friend Lance Cpl. Nick Eufrazio — but both survived. While Carpenter lost his right eye and took shrapnel throughout his face and lower body, his recovery has been nothing short of remarkable.
Carpenter continued (via Marine Times):
Be proud of who you are. Be proud of what you did in that country. You are alive today and have been blessed with this opportunity of life. Don’t waste it. Live a life worth living, full of meaning and purpose, and one that will make the fallen who are looking down on us proud.
Marines, I’m proud to have worn the same uniform as you.
Never forget that when no one else would raise their right hand, you did. You sacrificed and became part of our nation’s history and our Marine Corps legacy for taking part in the historical battleground of Marjah. Thank you so much. I really do appreciate it.
Whenever you look through a substance, whether it’s the water in a pool or a pane of old, rippled glass, the objects you see look distorted. For centuries, astronomers have been mapping the sky through the distortions caused by our atmosphere, however, in recent years, they’ve developed techniques to counter these effects, clearing our view of the stars. If we turn to look at the Earth instead of the skies, distorted visuals are a challenge too: Earth scientists who want to map the oceans or study underwater features struggle to see through the distortions caused by waves at the surface.
Researchers at NASA’s Ames Research Center, in California’s Silicon Valley, are focused on solving this problem with fluid lensing, a technique for imaging through the ocean’s surface. While we’ve mapped the surfaces of the Moon and Mars in great detail, only 4% of the ocean floor is currently mapped. Getting accurate depth measurements and clear images is difficult in part, due to how light is absorbed and intensified by the water and distorted by its surface. By running complex calculations, the algorithm at the heart of fluid lensing technology is largely able to correct for these troublesome effects.
You’ve probably noticed these distortions between light and water before. When you look down at your body in a swimming pool, it appears at odd angles and different sizes because you’re looking at it through the water’s surface. When light passes through that surface, it also creates bright bands of light, in an almost web-like structure that you see at the bottom of the pool called caustics. When caustics, are combined with the other distortions caused by water, they make imaging the ocean floor a difficult process. Caustics on the ocean floor are so bright that sometimes they are even brighter than sunlight at the surface!
Researchers at the Laboratory for Advanced Sensing at NASA Ames are developing two technologies to image through the ocean surface using fluid lensing: FluidCam and MiDAR, the Multispectral Imaging, Detection, and Active Reflectance instrument.
A researcher testing the FluidCam instrument while on deployment in Puerto Rico.
A lens to the sea
The FluidCam instrument is essentially a high-performance digital camera. It’s small and sturdy enough to collect images while mounted on a drone flying above a body of water. Eventually, this technology will be mounted on a small satellite, or CubeSat, and sent into orbit around the Earth. Once images of the sea floor are captured, the fluid lensing software takes that imagery and undoes the distortion created by the ocean surface. This includes accounting for the way an object can look magnified or appear smaller than usual, depending on the shape of the wave passing over it, and for the increased brightness caused by caustics.
While FluidCam is passive, meaning it takes in light like a traditional camera and then processes those images, MiDAR will be active, collecting data by transmitting light that gets bounced back to the instrument, similar to how radar functions. It also operates in a wider spectrum of light, meaning it can detect features invisible to the human eye, and even collect data in darkness. It’s also able to see deeper into the ocean, using the magnification caused by the water’s surface to its advantage, leading to higher resolution images. MiDAR could even make it possible for a satellite in orbit to explore a coral reef on the centimeter scale.
Both technologies bring us closer to mapping the ocean floor with a level of detail previously only possible when teams of divers were sent under water to take photographs. By using fluid lensing on satellites in orbit, the oceans can be observed at the same level of detail across the globe.
Citizen science to help save coral
But why does mapping the ocean matter? Besides being the Earth’s largest ecosystem, it’s also home to one of the planet’s most unique organisms: coral. Coral is one of the oldest life forms on the planet, and one of the few that is visible from space. This irreplaceable member of the ocean world is dying at an unprecedented rate and, without proper tracking, it’s unclear exactly how fast or how best to stop its deterioration. With fluid lensing technology, the ability to track changes to coral reefs around the world is within reach.
A screenshot from the NeMO-Net game.
A program called NeMO-Net aims to do just this, with some help from machine learning technologies and the general public. A citizen science game by the same name, soon to be released to the public, allows users to interact with real NASA data of the ocean floor, and highlight coral found in these images. This will train an algorithm to look through the rest of the data for more coral, creating a system that can accurately identify coral in any imagery that it processes.
Tracking coral allows scientists to better pinpoint the causes of its deterioration and come up with solutions to limit damaging human impact on this life form that hosts more biodiversity than the Amazon rainforest.
By using techniques originally designed to study the stars, fluid lensing will allow us to learn more about one of the greatest mysteries right here on our own planet: the ocean and all the multitudes of life within it. That alien world holds just as many mysteries as the cosmos, and with technologies like fluid lensing, discovering those enigmas is within our grasp.
Researchers flying the FluidCam instrument during a field deployment in Puerto Rico.
March 2019: In collaboration with the University of Puerto Rico, a research crew from NASA Ames will be deploying FluidCam and MiDAR to study the shallow reefs of Puerto Rico. Field sites include the La Gata and Caracoles Reefs, Enrique Reef, San Cristobal Reef, and Media Luna Reef.
May 2019: Another deployment of the MiDAR instrument will take place in Guam, with the goal of testing while diving and in the air.
Fall 2019: Fluid Lensing instruments will be deployed to the Great Barrier Reef.
The Laboratory for Advanced Sensing is supported by the NASA Biological Diversity Program, Advanced Information Systems Technology Program and Earth Science Technology Office.
Everyone has a different way of passing the time during deployments. Some people work their way through seasons on Netflix, some CrossFit their way to a better physique, while others pursue academic goals. For Green Beret Nate Boyer, it was watching YouTube videos and practicing those skills that helped him chase his dream of becoming a professional football player.
In Sunday’s Super Bowl commercial, we see the journey of Nate Boyer. Following his service in the Army, Boyer wanted to go to college and to be a starter on the Texas Longhorns football team.
There was only one tiny wrench in his plan: he had never played football.
Boyer was told he was “too small, too slow, too old. Nobody wants a 30-year-old rookie on their team.” But just ask Boyer: he’s no ordinary rookie. Following tryouts, Boyer learned that there would be a starting position open as a long snapper for the Longhorns.
“I didn’t even know what a long snapper was,” he said.
Boyer learned and honed the skills through YouTube and watched as his dreams came true:
Most people will never get to experience a flight in an F-16 fighter but this awesome GoPro video gives a little taste.
Produced with footage from the 35th Fighter Squadron out of Kunsan Air Force Base in South Korea, the video shows pilots as they trained in Alaska last year. It has everything: barrel rolls, air-to-air combat, low-level flight, and live fire at a range.
The squadron was in Alaska to take part in Red Flag Alaska 15-1, a training exercise that allows pilots to sharpen their skills in the air.
“The greatest takeaway from this exercise is being able to fly with other air frames that I don’t normally get to fly with at Kunsan,” 1st Lt. Jared Tew told Air Force public affairs. “And the challenges that RF-A brings are what makes me a better pilot.”
Just as dust gathers in corners and along bookshelves in our homes, dust piles up in space too. But when the dust settles in the solar system, it’s often in rings. Several dust rings circle the Sun. The rings trace the orbits of planets, whose gravity tugs dust into place around the Sun, as it drifts by on its way to the center of the solar system.
The dust consists of crushed-up remains from the formation of the solar system, some 4.6 billion years ago — rubble from asteroid collisions or crumbs from blazing comets. Dust is dispersed throughout the entire solar system, but it collects at grainy rings overlying the orbits of Earth and Venus, rings that can be seen with telescopes on Earth. By studying this dust — what it’s made of, where it comes from, and how it moves through space — scientists seek clues to understanding the birth of planets and the composition of all that we see in the solar system.
Two recent studies report new discoveries of dust rings in the inner solar system. One study uses NASA data to outline evidence for a dust ring around the Sun at Mercury’s orbit. A second study from NASA identifies the likely source of the dust ring at Venus’ orbit: a group of never-before-detected asteroids co-orbiting with the planet.
“It’s not every day you get to discover something new in the inner solar system,” said Marc Kuchner, an author on the Venus study and astrophysicist at NASA’s Goddard Space Flight Center in Greenbelt, Maryland. “This is right in our neighborhood.”
In this illustration, several dust rings circle the Sun. These rings form when planets’ gravities tug dust grains into orbit around the Sun. Recently, scientists have detected a dust ring at Mercury’s orbit. Others hypothesize the source of Venus’ dust ring is a group of never-before-detected co-orbital asteroids.
(NASA’s Goddard Space Flight Center/Mary Pat Hrybyk-Keith)
Another ring around the Sun
Guillermo Stenborg and Russell Howard, both solar scientists at the Naval Research Laboratory in Washington, D.C., did not set out to find a dust ring. “We found it by chance,” Stenborg said, laughing. The scientists summarized their findings in a paper published in The Astrophysical Journal on Nov. 21, 2018.
They describe evidence of a fine haze of cosmic dust over Mercury’s orbit, forming a ring some 9.3 million miles wide. Mercury — 3,030 miles wide, just big enough for the continental United States to stretch across — wades through this vast dust trail as it circles the Sun.
Ironically, the two scientists stumbled upon the dust ring while searching for evidence of a dust-free region close to the Sun. At some distance from the Sun, according to a decades-old prediction, the star’s mighty heat should vaporize dust, sweeping clean an entire stretch of space. Knowing where this boundary is can tell scientists about the composition of the dust itself, and hint at how planets formed in the young solar system.
So far, no evidence has been found of dust-free space, but that’s partly because it would be difficult to detect from Earth. No matter how scientists look from Earth, all the dust in between us and the Sun gets in the way, tricking them into thinking perhaps space near the Sun is dustier than it really is.
Stenborg and Howard figured they could work around this problem by building a model based on pictures of interplanetary space from NASA’s STEREO satellite — short for Solar and Terrestrial Relations Observatory.
Scientists think planets start off as mere grains of dust. They emerge from giant disks of gas and dust that circle young stars. Gravity and other forces cause material within the disk to collide and coalesce.
(NASA’s Jet Propulsion Laboratory)
Ultimately, the two wanted to test their new model in preparation for NASA’s Parker Solar Probe, which is currently flying a highly elliptic orbit around the Sun, swinging closer and closer to the star over the next seven years. They wanted to apply their technique to the images Parker will send back to Earth and see how dust near the Sun behaves.
Scientists have never worked with data collected in this unexplored territory, so close to the Sun. Models like Stenborg and Howard’s provide crucial context for understanding Parker Solar Probe’s observations, as well as hinting at what kind of space environment the spacecraft will find itself in — sooty or sparkling clean.
Two kinds of light show up in STEREO images: light from the Sun’s blazing outer atmosphere — called the corona — and light reflected off all the dust floating through space. The sunlight reflected off this dust, which slowly orbits the Sun, is about 100 times brighter than coronal light.
“We’re not really dust people,” said Howard, who is also the lead scientist for the cameras on STEREO and Parker Solar Probe that take pictures of the corona. “The dust close to the Sun just shows up in our observations, and generally, we have thrown it away.” Solar scientists like Howard — who study solar activity for purposes such as forecasting imminent space weather, including giant explosions of solar material that the Sun can sometimes send our way — have spent years developing techniques to remove the effect of this dust. Only after removing light contamination from dust can they clearly see what the corona is doing.
The two scientists built their model as a tool for others to get rid of the pesky dust in STEREO — and eventually Parker Solar Probe — images, but the prediction of dust-free space lingered in the back of their minds. If they could devise a way of separating the two kinds of light and isolate the dust-shine, they could figure out how much dust was really there. Finding that all the light in an image came from the corona alone, for example, could indicate they’d found dust-free space at last.
Mercury’s dust ring was a lucky find, a side discovery Stenborg and Howard made while they were working on their model. When they used their new technique on the STEREO images, they noticed a pattern of enhanced brightness along Mercury’s orbit — more dust, that is — in the light they’d otherwise planned to discard.
“It wasn’t an isolated thing,” Howard said. “All around the Sun, regardless of the spacecraft’s position, we could see the same five percent increase in dust brightness, or density. That said something was there, and it’s something that extends all around the Sun.”
Scientists never considered that a ring might exist along Mercury’s orbit, which is maybe why it’s gone undetected until now, Stenborg said. “People thought that Mercury, unlike Earth or Venus, is too small and too close to the Sun to capture a dust ring,” he said. “They expected that the solar wind and magnetic forces from the Sun would blow any excess dust at Mercury’s orbit away.”
With an unexpected discovery and sensitive new tool under their belt, the researchers are still interested in the dust-free zone. As Parker Solar Probe continues its exploration of the corona, their model can help others reveal any other dust bunnies lurking near the Sun.
Asteroids hiding in Venus’ orbit
This isn’t the first time scientists have found a dust ring in the inner solar system. Twenty-five years ago, scientists discovered that Earth orbits the Sun within a giant ring of dust. Others uncovered a similar ring near Venus’ orbit, first using archival data from the German-American Helios space probes in 2007, and then confirming it in 2013, with STEREO data.
Since then, scientists determined the dust ring in Earth’s orbit comes largely from the asteroid belt, the vast, doughnut-shaped region between Mars and Jupiter where most of the solar system’s asteroids live. These rocky asteroids constantly crash against each other, sloughing dust that drifts deeper into the Sun’s gravity, unless Earth’s gravity pulls the dust aside, into our planet’s orbit.
At first, it seemed likely that Venus’ dust ring formed like Earth’s, from dust produced elsewhere in the solar system. But when Goddard astrophysicist Petr Pokorny modeled dust spiraling toward the Sun from the asteroid belt, his simulations produced a ring that matched observations of Earth’s ring — but not Venus’.
This discrepancy made him wonder if not the asteroid belt, where else does the dust in Venus’ orbit come from? After a series of simulations, Pokorny and his research partner Marc Kuchner hypothesized it comes from a group of never-before-detected asteroids that orbit the Sun alongside Venus. They published their work in The Astrophysical Journal Letters on March 12, 2019.
“I think the most exciting thing about this result is it suggests a new population of asteroids that probably holds clues to how the solar system formed,” Kuchner said. If Pokorny and Kuchner can observe them, this family of asteroids could shed light on Earth and Venus’ early histories. Viewed with the right tools, the asteroids could also unlock clues to the chemical diversity of the solar system.
Because it’s dispersed over a larger orbit, Venus’ dust ring is much larger than the newly detected ring at Mercury’s. About 16 million miles from top to bottom and 6 million miles wide, the ring is littered with dust whose largest grains are roughly the size of those in coarse sandpaper. It’s about 10 percent denser with dust than surrounding space. Still, it’s diffuse — pack all the dust in the ring together, and all you’d get is an asteroid two miles across.
Using a dozen different modeling tools to simulate how dust moves around the solar system, Pokorny modeled all the dust sources he could think of, looking for a simulated Venus ring that matched the observations. The list of all the sources he tried sounds like a roll call of all the rocky objects in the solar system: Main Belt asteroids, Oort Cloud comets, Halley-type comets, Jupiter-family comets, recent collisions in the asteroid belt.
“But none of them worked,” Kuchner said. “So, we started making up our own sources of dust.”
Perhaps, the two scientists thought, the dust came from asteroids much closer to Venus than the asteroid belt. There could be a group of asteroids co-orbiting the Sun with Venus — meaning they share Venus’ orbit, but stay far away from the planet, often on the other side of the Sun. Pokorny and Kuchner reasoned a group of asteroids in Venus’ orbit could have gone undetected until now because it’s difficult to point earthbound telescopes in that direction, so close to the Sun, without light interference from the Sun.
Asteroids represent building blocks of the solar system’s rocky planets. When they collide in the asteroid belt, they shed dust that scatters throughout the solar system, which scientists can study for clues to the early history of planets.
(NASA’s Goddard Space Flight Center Conceptual Image Lab)
Co-orbiting asteroids are an example of what’s called a resonance, an orbital pattern that locks different orbits together, depending on how their gravitational influences meet. Pokorny and Kuchner modeled many potential resonances: asteroids that circle the Sun twice for every three of Venus’ orbits, for example, or nine times for Venus’ ten, and one for one. Of all the possibilities, one group alone produced a realistic simulation of the Venus dust ring: a pack of asteroids that occupies Venus’ orbit, matching Venus’ trips around the Sun one for one.
But the scientists couldn’t just call it a day after finding a hypothetical solution that worked. “We thought we’d discovered this population of asteroids, but then had to prove it and show it works,” Pokorny said. “We got excited, but then you realize, ‘Oh, there’s so much work to do.'”
They needed to show that the very existence of the asteroids makes sense in the solar system. It would be unlikely, they realized, that asteroids in these special, circular orbits near Venus arrived there from somewhere else like the asteroid belt. Their hypothesis would make more sense if the asteroids had been there since the very beginning of the solar system.
The scientists built another model, this time starting with a throng of 10,000 asteroids neighboring Venus. They let the simulation fast forward through 4.5 billion years of solar system history, incorporating all the gravitational effects from each of the planets. When the model reached present-day, about 800 of their test asteroids survived the test of time.
Pokorny considers this an optimistic survival rate. It indicates that asteroids could have formed near Venus’ orbit in the chaos of the early solar system, and some could remain there today, feeding the dust ring nearby.
The next step is actually pinning down and observing the elusive asteroids. “If there’s something there, we should be able to find it,” Pokorny said. Their existence could be verified with space-based telescopes like Hubble, or perhaps interplanetary space-imagers similar to STEREO’s. Then, the scientists will have more questions to answer: How many of them are there, and how big are they? Are they continuously shedding dust, or was there just one break-up event?
In this illustration, an asteroid breaks apart under the powerful gravity of LSPM J0207+3331, a white dwarf star located around 145 light-years away. Scientists think crumbling asteroids supply the dust rings surrounding this old star.
(NASA’s Goddard Space Flight Center/Scott Wiessinger)
Dust rings around other stars
The dust rings that Mercury and Venus shepherd are just a planet or two away, but scientists have spotted many other dust rings in distant star systems. Vast dust rings can be easier to spot than exoplanets, and could be used to infer the existence of otherwise hidden planets, and even their orbital properties.
But interpreting extrasolar dust rings isn’t straightforward. “In order to model and accurately read the dust rings around other stars, we first have to understand the physics of the dust in our own backyard,” Kuchner said. By studying neighboring dust rings at Mercury, Venus and Earth, where dust traces out the enduring effects of gravity in the solar system, scientists can develop techniques for reading between the dust rings both near and far.
This article originally appeared on NASA. Follow @NASA on Twitter.
One of those CIA operatives was Michael D’Andrea, state TV said, according to BBC Monitoring, which first reported the claims made on Iranian TV.
Iranian TV did not provide any evidence for its claim that D’Andrea was killed Monday.
But instead of airing a photograph of the real D’Andrea, Iran’s Channel One chose to show the face of Fredric Lehne, a US actor who played a character inspired by D’Andrea in the 2012 movie “Zero Dark Thirty.” The movie is a dramatization of the US assassination of al-Qaeda leader Osama Bin Laden.It is not know if the choice of photo was an error, or a last resort due to a lack of available photographs of D’Andrea.
When it comes to the military move, there are certain truths we all know. Moving dates are subject to change. Something you love will get broken. Babies don’t sleep well in hotel rooms. And you’re going to have some out-of-pocket expenses.
But you can find all sorts of deals to help lessen some of those pesky PCS expenses. Here are 7 deals to look into before, during and after your PCS move:
If a PPM is in your future, you’re probably going to need to rent a moving truck as well.Penske and Budget Truck Rental offer military discounts on truck rentals to get you and your belongings where your orders take you.
Need help shipping your vehicle? iMovers, an auto transport brokerage that provides shipping services to every state but Alaska and Hawaii, offers military discounts to those who need assistance transporting their vehicles.
Want to learn more about shipping a car overseas? Click here for details.
Moving your family is hard enough. But moving with a pet can make a move even more complicated, especially if you’re moving overseas. Pet Air Carrier offers military discounts when moving your pet internationally. They also help with clearing customs when returning to the States.
Whether you’re trying to set aside the personal items you don’t want the movers to pack or you’re attempting to figure out how to make the most of the space in the world’s smallest closet, PCS moves go so much more smoothly when you’re organized.
It’s also essential to keep important documents such as copies of military orders, birth certificates, powers of attorney and packing checklists organized before, during and after your move. Store them all in one place by creating a PCS binder as soon as you as you start the moving process.
Whether you sold some of your belongings so you would have less stuff to move, you’re upgrading to a larger house, or your PCS is just a good excuse to redecorate, you’re probably going to be shopping for items to decorate your new home. Whatever you’re looking for, there’s likely a military discount to help you out, including Build.com, Blinds Chalet, Crate and Barrel, Overstock.com, Pottery Barn Kids, BJ’s and Sam’s Club.
6. Home improvement
Unless you live in a perfect world where grass doesn’t grow, pictures hang themselves and appliances don’t break, you’re bound to face some home improvement tasks when you reach your final destination. Both Home Depot and Lowes offer a year-round military discount to help you either spruce up the house you’re trying to sell or turn your new house into a home.
7. Tech support
Part of getting settled into your new home is hooking up computers and other electronics. But sometimes that daunting task requires some help. Need tech support? My Nerds offer military discounts.
Promotions are an exciting event in a military career, and celebrating them comes standard. The question, however, comes in what type of celebration to expect — essentially, how big is too big? And what’s the “norm” for each rank and service branch?
Because everyone who gets promoted to a new rank is presumably doing so for the first time, there’s a steep learning curve. You can talk to others or attend services of those ahead of you in order to learn what’s expected by you as the service member.
Big or small, salute them all!
It doesn’t matter if you’re getting your first promotion or your 10th, it’s something to be excited about! Enjoy your achievement and bask in the progress of your career. Don’t overlook a promotion for it being “small,” but rather take time to pat yourself on the back.
This is a big deal; you’ve earned it!
Early career promotions
Consider that, earlier in one’s career, promotions will come faster. It’s easier to climb the ranks your first few years in. There’s nothing wrong with this, only to keep in mind that in years to come, promotions won’t come as easily, or as frequently.
It’s a good idea to communicate this to friends and family, too. So they aren’t expecting fast pay jumps … and to give them a better idea of how the military works. In fact, it’s a good idea to keep your loved ones in the know for a better communication process about your future.
Pinning and pomp and circumstance
No matter what rank you’re pinning, there will be some type of ceremony. Keep in mind that, depending on the circumstances, they could be a big deal, or something simple. For instance, if deployed, you might have a fast “here’s your new rank” get together. While, when stateside, you can invite loved ones and plan an actual event.
In general, you get to choose someone to pin (or velcro) on your new rank. Decide who you want this person to be, whether a family member, co-worker or someone else who’s made a profound influence in your life. Ask them in advance, and if they aren’t associated with the military, coach them on what/when to add said insignia.
Promotion ceremonies usually come with much tradition and history. These traditions will vary based on branch, unit and career path. Be sure to get in on the fun and play up whatever will take place. As a member of each branch, you’re likely to know what’s ahead and how the ceremony will play out.
For instance, army members might exchange coins, Marines will march in and out of their promotion stance, and so forth.
Reaching the big jumps
When reaching higher ranks, more is expected on promotion day, most notably a cake! Sources say, even at 8 a.m., a cake will be eaten, and showing up without one is simply not done.
Whether enlisted or an officer, upper ranking soldiers will host a reception to celebrate their big day, and the size of that reception often depends on the rank itself. In general, this is usually E7 or O4 and above, while E9 or O5/O6 will host an even larger celebratory event. Each branch will have its own nuances, so check with those in your unit, or scour the net for best practices with each upcoming promotion.
When a promotion sits ahead, consider the best way to celebrate. Not only to bask in your achievements but to follow within military traditions based on your achievement and branch.
The Navy will soon deploy a new missile aboard its Littoral Combat Ship that can find and destroy enemy ships at distances up to 100 nautical miles, service officials said.
Called the Naval Strike Missile, or NSM, the weapon is developed by a Norwegian-headquartered firm called Konigsberg; it is currently used on Norwegian Nansen-class frigates and Skjold-Class missile torpedo boats, company officials said.
“The Navy is currently planning to utilize the Foreign Comparative Testing program to procure and install the Norwegian-built Naval Strike Missile on the USS FREEDOM (LCS 1). The objective is to demonstrate operationally-relevant installation, test, and real-world deployment on an LCS,” a Navy spokeswoman from Naval Sea Systems Command told Scout Warrior.
The deployment of the weapon is the next step in the missiles progress. In 2014NSM was successfully test fired from the flight deck of the USS CORONADO (LCS 4) at the Pt. Mugu Range Facility, California, demonstrating a surface-to-surface weapon capability, the Navy official explained.
First deployed by the Norwegian Navy in 2012, the missile is engineered to identify ships by ship class, Gary Holst, Senior Director for Naval Surface Warfare, Konigsberg, told Scout Warrior in an interview.
The NSM is fired from a deck-mounted launcher. The weapon uses an infrared imaging seeker, identify targets, has a high degree of maneuverability and flies close to the water in “sea-skim” mode to avoid ship defenses, he added.
“It can determine ships in a group of ships by ship class, locating the ship which is its designated target. It will attack only that target,” Holst said.
Holst added that the NSM was designed from the onset to have a maneuverability sufficient to defeat ships with advanced targets; the missile’s rapid radical maneuvers are built into the weapon in order to defeat what’s called “terminal defense systems,” he said.
“One of the distinguishing features of the missile is its ability to avoid terminal defense systems based on a passive signature, low-observable technologies and maneuverability. It was specifically designed to attack heavily defended targets,” Holst said.
For instance, the NSM is engineered to defeat ship defense weapons such as the Close-In-Weapons System, or CIWS – a ship-base defensive fire “area weapon” designed to fire large numbers of projectiles able intercept, hit or destroy approaching enemy fire.
CIWS is intended to defend ships from enemy fire as it approaches closer to its target, which is when the NSM’s rapid maneuverability would help it avoid being hit and proceed to strike its target, Holst added.
Holst added that the weapon is engineered with a “stealthy” configuration to avoid detection from ship detection systems and uses its sea-skimming mode to fly closer to the surface than any other missile in existence.
“It was designed against advanced CIWS systems. It is a subsonic weapon designed to bank to turn. It snaps over when it turns and the seeker stays horizontally stabilized — so the airframe turns around the seeker so it can zero-in on the seam it is looking at and hit the target,” he said.
Raytheon and Konigsberg signed a teaming agreement to identify ways we can reduce the cost of the missile by leveraging Raytheon’s supplier base and supplier management, Holst explained.
Konigsberg is working with Raytheon to establish NSM production facilities in the U.S., Ron Jenkins, director for precision standoff strike, Raytheon Missile systems, said.
Konigsberg is also working on a NSM follow-on missile engineered with an RF (radio frequency) sensor that can help the weapon find and destroy targets.
The new missile is being built to integrate into the internal weapons bay of Norway’s F-35 Joint Strike Fighter.
Konigsberg and Raytheon are submitting the missile for consideration for the Navy’s long-range beyond-the-horizon offensive missile requirement for its LCS.
“The Navy has identified a need for an over-the-horizon missile as part of their distributed lethality concept which is adding more offensive weapons to more ships throughout the fleet and they wanted to do this quickly,” Holst explained.
The Navy’s distributed lethality strategy involves numerous initiatives to better arm its fleet with offensive and defensive weapons, maintain a technological advantage over adversaries and strengthen its “blue water” combat abilities against potential near-peer rivals, among other things.
They are pitching the missile as a weapon which is already developed and operational – therefore it presents an option for the Navy that will not require additional time and extensive development, he said.
“The missile is the size, shape and weight that fits on both classes of the Littoral Combat Ship,” Holst said.
Chances are you’ve a seen one buzzing overhead at a park or above neighborhood streets, and companies like Intel and GoPro are rushing to cash in on the trend.
But not everyone is a fan of the remotely-piloted devices, especially when drones go places they shouldn’t to surreptitiously shoot video footage of private events or to cause other potential security concerns.
A group of engineers in England has come up with a way to thwart the drone menace: A shoulder-fired air-powered bazooka known as the Skywall 100 that can down a drone from 100 meters away. Rather than obliterate the drone in the sky, the SkyWall’s missile traps the drone in a net, bringing it down to the ground intact.
A spokesperson for OpenWorks Engineering, which makes the Skywall 100, wouldn’t provide a price for the device, noting that price will depend on quantity purchased and other factors. In development for seven months, the SkyWall 100 is expected to be in some customer hands by the end of the year, he said.
The company has created a video to show off how it works. Check it out:
Airports are a no-go zone for drones, given the safety problems that arise when the little quad-copters enter the airspace of commercial airliners.
OpenWorks Engineering | YouTube
An unauthorized quad-copter drone is clearly going someplace it shouldn’t.
OpenWorks Engineering | YouTube
Security is quickly alerted to the drone intruder and rushes to the scene.
OpenWorks Engineering | YouTube
Luckily the security guard has a special briefcase in his jeep.
OpenWorks Engineering | YouTube
And look what’s inside…
OpenWorks Engineering | YouTube
The SkyWall 100 is pretty big and weighs about 22 pounds, but it is quickly hoisted atop the security guard’s shoulder.
OpenWorks Engineering | YouTube
To use it, you look through the special “smart scope” which calculates the drone’s flight path and tells you where to aim.
OpenWorks Engineering | YouTube
A digital display makes it easy to lock on to the flying target.
OpenWorks Engineering | YouTube
The SkyWall uses compressed air to fire a projectile that can travel up to 100 meters (roughly 328 feet). It can be reloaded in 8 seconds.
OpenWorks Engineering | YouTube
Once the projectile is in the air, it releases a wide net to catch the drone.
OpenWorks Engineering | YouTube
After snagging the drone in the net, a parachute is deployed to bring the drone back to earth without getting damaged.
OpenWorks Engineering | YouTube
The security guard can then go retrieve his prey and rest comfortably knowing that he saved the day.
Editor’s note: This is the third in a series of profiles of incredible female veterans that WATM will be presenting in concert with Women’s History Month.
Kayla Williams (right) with unidentified female soldier next to an up-armored Humvee during the initial invasion of Iraq in 2003.
The title of Kayla Williams’ 2005 book, Love My Rifle More Than You: Young and Female in the US Army uses an old marching cadence to seemingly thumb its nose at what some might consider the more antiquated ways of US Army culture, especially when it comes to women. Fifteen percent of the Army is female, but Williams would come to learn during the Iraq War, the only women in the Army the public knew well were Lynndie England and Jessica Lynch… and those were not the people Williams wanted representing women in the Army.
“When I came home from Iraq, I realized people can be ignorant about the role of women in combat,” Williams told me. “Some people asked if I was allowed to carry a gun, some asked if I was in the infantry, even though women still can’t be. I was acutely aware women’s roles were largely unknown to the general public and I wanted to give a nuanced perspective of what women experience in the current conflicts.”
Williams was an Army signals intelligence linguist, specializing in intercept and direction finding. She enlisted in 2000 because she wanted to learn another language. The language the Army chose would dramatically affect the way she looked at her career.
“I got Arabic as opposed to Korean or Chinese,” Williams says. “I was at the Defense Language Institute on 9/11 and it was clear to us then the world had changed.” In 2003, Williams was part of the initial invasion of Iraq with the 101st Airborne Air Assault. Though her primary function was signals intelligence, she found there was a huge need for Arabic translation on the ground. Beyond any of her expectations she found herself doing foot patrols with the Army infantry.
“This was the very early days of the war,” she recalls. “The Iraqi people were still hopeful they would see a better future in the aftermath of the down fall of the regime. I was making a difference in the lives of those Iraqis and in the lives of my fellow soldiers.”
Williams’ work took her all over the American area of responsibility in Iraq. She worked her way North to Mosul, Sinjar, and Tal Afar, and spent a great deal of time on the Syrian border.
“In my experience,” she says, “everyone has to prove themselves in a new unit, male or female. Everyone is going to test you. It’s inevitable. In the combat arms units I was attached to, how they treated me depended on how well I did my job. When they saw me translating for them, they could see I could help them. And when commanders treated me with respect, the troops would too.”
Though far from a support structure, Kayla Williams remembers those first days in the Northern areas of Iraq as relatively peaceful. By the time her deployment was over, however, the situation had completely changed. They had electricity and running water in their camp, but now the insurgency had taken root.
“When we drove back to Kuwait at the end of my tour we had to do it at night in a blackout drive.”
Despite personal feelings about the war, Williams approached every mission to the best of her ability. She knew her skill as a translator could be the most necessary help to the war, and thus the troops. She thought at the time though we went to war for the wrong reasons, maybe we still did a good thing. Now, with a Master’s degree in International Affairs with a focus on the Middle East from American University, her observations are more grounded in fact than feeling.
“Maybe in a generation or two the Middle East will be better off,” she says. “But who knows? Who predicted the rise of ISIS? I’m not sure that anyone can predict the long term. It’s the polite way of saying I hope we didn’t fuck it up too bad.”
Williams sees the roles of women in the Armed Forces as a necessary one, especially given cultural sensitivities in predominantly Muslim countries. To her, being able to assign women to combat units will give field commanders better command and control capability without sacrificing readiness or discipline.
“The decision to lift the exclusion policy for women in combat was a validation and vindication of the more than 280,000 women who served in Iraq and Afghanistan,” Williams says. “The former Secretary of Defense made the decision with the unanimous support of the Joint Chiefs of Staff. Now commanders will be able to train like they fight and function better as a military by putting the right people in the right jobs.”
Despite persistent power shortages, North Korea is reportedly selling electricity to China for cash.
The deal, which reportedly began on Feb. 9, 2018, will see China pay between $60,000 and $100,000 a month for power generated by a hydroelectric dam close to the border between the two countries, according to Seoul-based news outlet Daily NK.
“The Supong Hydroelectric Generator in Sakju County is providing the energy to a Chinese factory that produces fire proofing materials. The [North Korean] authorities are accepting payments in the form of cash,” a source in the local North Korean province told Daily NK.
The source also said the export project has been named “The January 8 Fund,” after the birthday of North Korea’s leader Kim Jong Un. His father, Daily NK reported, also had a similar project that earned foreign currency named after his birthday on Feb. 16.
According to Daily NK, North Korea’s usual priority is to first power “idolization sites” for the country’s two previous leaders, government organizations, and munitions factories, before civilian homes or buildings.
Fewer than one-in-three North Koreans have access to electricity, the World Bank estimates, and nighttime satellite images show what that looks like for most of the country.
Unsurprisingly, the Sakju generator doesn’t provide electricity for ordinary citizens, rather it reportedly usually powers a munitions factory, meaning military production could be affected by the power sale to China.
The desire to reroute electricity away from a munitions factory indicates how desperate sanctions have made Pyongyang to earn foreign currency.