NATO has established a new organization in Afghanistan to manage the communications and information systems there in an attempt to revolutionize its approach to those services. The group subsumes operations that used to fall under multiple regional commands, streamlining activities while conserving resources.
Two brigades from the Army’s 10th Mountain Division are preparing to deploy to Afghanistan with a host of technologies that will allow the units to provide their own network down to the tactical edge. The new equipment provides battalion and company commanders with a communications on the move capability and pushes critical data down to the individual squad level.
The same approach used to test and implement the Army’s single largest networking system is laying the groundwork for extending the network down to the individual soldier. As laboratory tests and field exercises validate the interoperability of separate elements in a network, system conflicts are giving way to greater commonality among different elements.
This effort has borne fruit in the evolution of the Warfighter Information Network–Tactical (WIN–T). The last fielding of WIN–T Increment 1 took place in August 2012, and WIN–T Increment 2 is taking the final steps toward deployment. Meanwhile, WIN–T Increment 3 is beginning to take shape.
A military exercise designed to refine and improve the way coalition partners share vital information will, for the first time, include the network that is supporting troops in Afghanistan. Scheduled to take place in Poland next month, the event will feature military command and control communications experts from NATO, partner organizations and nations who share the goal of rigorously testing communications interoperability among coalition members. But one of the largest of those partners, the United States, is not taking a leading role in one of the newest, and most challenging areas, cybersecurity.
U.S. Army researchers have developed micro materials that fold when hit with a low-intensity laser. The advance may eliminate the need for relatively bulky power systems—such as battery packs—on tiny robotic systems. It also could enable robotic microthrusters, unattended ground sensors, or even—theoretically—programmable, easily changeable camouflage patterns.
The microelectromechanical systems (MEMS) are shaped like stars with four, six or eight legs. The legs fold—like origami—when heated slightly with light from a low-level laser. That folding action is accomplished without the materials being tethered to batteries, wires or other any other power supply.
Opportunities abound for industry to add technical expertise to diverse scientific exploration efforts.
Scientists at the Office of Naval Research are creating the world that will exist half a decade from now through projects that will change the face of the battlefield. With specific programs already decided, officials are turning their attention to garnering the support they need to make their burgeoning technologies a reality.
Academic, research and industry teams join forces to improve uniform materials.
New fabrics now under development will one day relieve troops from the burden of wearing additional garments to protect from chemical and biological attack. The effort, dubbed Second Skin, is being led by the Defense Threat Reduction Agency’s Chemical and Biological Technologies Department. The goal is to weave a new generation of multifunctional materials that can be manufactured into everyday military uniforms but use molecular-level technologies to protect against such attacks as soon as the wearer enters a contaminated area. The program is budgeted for $30 million over the next five years.
The synergy between operational planning and radar sensing provides enhanced search and rescue capabilities.
The U.S. Coast Guard is combining high-frequency coastal radar data with traditional oceanographic and geographic information to improve its chances of rescuing people in distress on the high seas. By merging these different sources of data, the Coast Guard enhances its search abilities while also providing better weather prediction for both its search and rescue teams and an endangered public in coastal areas.
Additive manufacturing, more commonly understood in the technology world as 3-D printing, is here to stay. Integrating this technology into our fleet and logistical supply chains now could provide incredible benefits, even though the technology still is relatively nascent. The Economist calls this “the third industrial revolution,” and, indeed, these techniques could transform the way we supply materiel in the wars we fight.
Coalition interoperability has received a good deal of focus during the past few years. The Afghan Mission Network (AMN) has given many hope that a repeatable solution for coalition operations could be developed that would allow rapid deployment of a coalition-compatible network for future conflicts. The Future Mission Network (FMN) is envisioned to allow coalition partners to plug into a standards-compliant network with the functionality and security needed to support complex operations.
Moving forward through sequester, next fiscal year's evaluations include new contracts and contacts.
As the U.S. Army prepares its network of the future, it plans to make some changes to the way it approaches working with government and private partners. The moves will increase interoperability downrange while attempting to shorten the ever-frustrating acquisition cycle that keeps the military behind the curve in implementing cutting-edge technologies.